Questões de Concurso Público TRE-PE 2017 para Analista  Judiciário - Análise de Sistemas

Foram encontradas 60 questões

Q792277 Banco de Dados
Assinale a opção que corresponde ao tipo de restrição de integridade expressa no próprio diagrama de entidades e relacionamentos no modelo relacional.
Alternativas
Q792278 Engenharia de Software
A ISO barra I E C 9126 descreve uma das características do modelo de qualidade de software como capacidade do produto de software de apresentar desempenho apropriado, relativo à quantidade de recursos usados, sob condições especificadas. Essa característica corresponde à
Alternativas
Q792279 Engenharia de Software
Com relação ao processo de contagem de pontos de função, assinale a opção correspondente à etapa responsável por reconhecer a complexidade e a contribuição de cada uma das funções contadas.
Alternativas
Q792280 Arquitetura de Software
A respeito de arquitetura orientada a serviços (S O A), assinale a opção correta.
Alternativas
Q792281 Arquitetura de Software
Assinale a opção que apresenta o padrão de projeto que tem por objetivo separar o display de estado de um objeto a partir do objeto em si e que permite que sejam fornecidos displays alternativos.
Alternativas
Q792282 Programação
REST (representational state transfer) é
Alternativas
Q792283 Arquitetura de Software
O E C M (enterprise content management) é
Alternativas
Q792284 Engenharia de Software
O DDD (domain-driven design)
Alternativas
Q792285 Modelagem de Processos de Negócio (BPM)
O B P M (business process management)
Alternativas
Q792286 Programação
Acerca do clean code, assinale a opção correta.
Alternativas
Q792287 Segurança da Informação
Acerca de criptografia, assinale a opção correta.
Alternativas
Q792288 Engenharia de Software
Refactoring é o processo que
Alternativas
Q792289 Engenharia de Software
O desenvolvimento orientado a testes (TDD)
Alternativas
Q792290 Banco de Dados
Tabela 3A6AAA
dados da tabela:
ID; nome; idtipo; preco
25; creme; 3; 11,50
31; arroz; 4; 12,50
34; leite; 1; 14,00
42; sabão; 5; 11,00
46; carne; 1; 12,75
48; shampoo; 5; 12,30
58; azeite; 1; 13,25
Considerando-se os campos e dados contidos na tabela 3A6AAA, denominada tbproduto, é correto afirmar que o comando SQL.
Alternativas
Q792291 Banco de Dados
Tabela 3A6AAA
dados da tabela:
ID; nome; idtipo; preco
25; creme; 3; 11,50
31; arroz; 4; 12,50
34; leite; 1; 14,00
42; sabão; 5; 11,00
46; carne; 1; 12,75
48; shampoo; 5; 12,30
58; azeite; 1; 13,25
Assinale a opção que apresenta o comando S Q L correto para se incluir um novo campo idcategoria do tipo INT nos dados da tabela 3A6AAA, denominada tbproduto.
Alternativas
Q792292 Programação
Assinale a opção que indica a descrição correta de um array denominado empregados que contenha três objetos compostos pelo registro do primeiro e do último nome de um empregado em uma matriz J S O N. 
Alternativas
Q792293 Inglês
Text 3A7AAA
Software architecture is a complex topic. Due to its complexity, our profession has produced a variety of definitions, each more or less useful depending on your point of view. Here is a definition from my first book, Journey of the Software Professional: “A system architecture defines the basic “structure” of the system (e.g., the high level modules comprising the major functions of the system, the management and distribution of data, the kind and style of its user interface, what platform(s) will it run on and so forth)”.
This definition is pretty consistent with many others. However, it lacks some important elements, such as specific technology choices and the required capabilities of the desired system. A colleague of mine, Myron Ahn, created the following definition of software architecture. It is a bit more expansive and covers a bit more ground than my original: “Software architecture is the sum of the nontrivial modules, processes, and data of the system, their structure and exact relationships to each other, how they can be and are expected to be extended and modified, and on which technologies they depend, from which one can deduce the exact capabilities and flexibilities of the system, and from which one can form a plan for the implementation or modification of the system”.
We could extend these definitions from the technical point of view, but this wouldn’t provide a lot of value. More than any other aspect of the system, architecture deals with the “big picture”. The real key to understanding it is to adopt this big picture. Moreover, while these definitions are useful, they are far too simplistic to take into account the full set of forces that shape, and are shaped by, an architecture. In truth, I doubt that any single definition of software architecture will ever capture all of what we believe to be important.
Luke Hohmann. Defining software architecture. In: Beyond software architecture: creating and sustaining winning solutions. Boston: Addison-Wesley, 2003, p. 1-2 (adapted).
About the definition for software architecture, text 3A7AAA shows that
Alternativas
Q792294 Inglês
Text 3A7AAA
Software architecture is a complex topic. Due to its complexity, our profession has produced a variety of definitions, each more or less useful depending on your point of view. Here is a definition from my first book, Journey of the Software Professional: “A system architecture defines the basic “structure” of the system (e.g., the high level modules comprising the major functions of the system, the management and distribution of data, the kind and style of its user interface, what platform(s) will it run on and so forth)”.
This definition is pretty consistent with many others. However, it lacks some important elements, such as specific technology choices and the required capabilities of the desired system. A colleague of mine, Myron Ahn, created the following definition of software architecture. It is a bit more expansive and covers a bit more ground than my original: “Software architecture is the sum of the nontrivial modules, processes, and data of the system, their structure and exact relationships to each other, how they can be and are expected to be extended and modified, and on which technologies they depend, from which one can deduce the exact capabilities and flexibilities of the system, and from which one can form a plan for the implementation or modification of the system”.
We could extend these definitions from the technical point of view, but this wouldn’t provide a lot of value. More than any other aspect of the system, architecture deals with the “big picture”. The real key to understanding it is to adopt this big picture. Moreover, while these definitions are useful, they are far too simplistic to take into account the full set of forces that shape, and are shaped by, an architecture. In truth, I doubt that any single definition of software architecture will ever capture all of what we believe to be important.
Luke Hohmann. Defining software architecture. In: Beyond software architecture: creating and sustaining winning solutions. Boston: Addison-Wesley, 2003, p. 1-2 (adapted).
Both definitions presented in text 3A7AAA mention
Alternativas
Q792295 Inglês
Text 3A7AAA
Software architecture is a complex topic. Due to its complexity, our profession has produced a variety of definitions, each more or less useful depending on your point of view. Here is a definition from my first book, Journey of the Software Professional: “A system architecture defines the basic “structure” of the system (e.g., the high level modules comprising the major functions of the system, the management and distribution of data, the kind and style of its user interface, what platform(s) will it run on and so forth)”.
This definition is pretty consistent with many others. However, it lacks some important elements, such as specific technology choices and the required capabilities of the desired system. A colleague of mine, Myron Ahn, created the following definition of software architecture. It is a bit more expansive and covers a bit more ground than my original: “Software architecture is the sum of the nontrivial modules, processes, and data of the system, their structure and exact relationships to each other, how they can be and are expected to be extended and modified, and on which technologies they depend, from which one can deduce the exact capabilities and flexibilities of the system, and from which one can form a plan for the implementation or modification of the system”.
We could extend these definitions from the technical point of view, but this wouldn’t provide a lot of value. More than any other aspect of the system, architecture deals with the “big picture”. The real key to understanding it is to adopt this big picture. Moreover, while these definitions are useful, they are far too simplistic to take into account the full set of forces that shape, and are shaped by, an architecture. In truth, I doubt that any single definition of software architecture will ever capture all of what we believe to be important.
Luke Hohmann. Defining software architecture. In: Beyond software architecture: creating and sustaining winning solutions. Boston: Addison-Wesley, 2003, p. 1-2 (adapted).
The author of text 3A7AAA concludes that
Alternativas
Q792296 Inglês
Text 3A7AAA
Software architecture is a complex topic. Due to its complexity, our profession has produced a variety of definitions, each more or less useful depending on your point of view. Here is a definition from my first book, Journey of the Software Professional: “A system architecture defines the basic “structure” of the system (e.g., the high level modules comprising the major functions of the system, the management and distribution of data, the kind and style of its user interface, what platform(s) will it run on and so forth)”.
This definition is pretty consistent with many others. However, it lacks some important elements, such as specific technology choices and the required capabilities of the desired system. A colleague of mine, Myron Ahn, created the following definition of software architecture. It is a bit more expansive and covers a bit more ground than my original: “Software architecture is the sum of the nontrivial modules, processes, and data of the system, their structure and exact relationships to each other, how they can be and are expected to be extended and modified, and on which technologies they depend, from which one can deduce the exact capabilities and flexibilities of the system, and from which one can form a plan for the implementation or modification of the system”.
We could extend these definitions from the technical point of view, but this wouldn’t provide a lot of value. More than any other aspect of the system, architecture deals with the “big picture”. The real key to understanding it is to adopt this big picture. Moreover, while these definitions are useful, they are far too simplistic to take into account the full set of forces that shape, and are shaped by, an architecture. In truth, I doubt that any single definition of software architecture will ever capture all of what we believe to be important.
Luke Hohmann. Defining software architecture. In: Beyond software architecture: creating and sustaining winning solutions. Boston: Addison-Wesley, 2003, p. 1-2 (adapted).
In the first line of text 3A7AAA, the expression “Due to” could be correctly replaced by
Alternativas
Respostas
41: D
42: B
43: A
44: B
45: D
46: A
47: A
48: B
49: C
50: C
51: D
52: B
53: A
54: B
55: B
56: D
57: A
58: A
59: D
60: C