

McqMate
These multiple-choice questions (MCQs) are designed to enhance your knowledge and understanding in the following areas: Computer Science Engineering (CSE) , Information Technology Engineering (IT) , Bachelor of Science in Computer Science SY (BSc CS) , Bachelor of Computer Applications (BCA) , Bachelor of Business Administration in Computer Applications (BBA [CA]) .
Chapters
351. |
If all the application processing and data management is carried out on the server and client is only responsible for running the system then this is referred as |
A. | Client-server model |
B. | Thin client server model |
C. | Thick client server model |
D. | None of these |
Answer» B. Thin client server model |
352. |
If the server is only responsible for data management and software on the client implements the application logic, then one can referrer this model as |
A. | Client server model |
B. | Fat client server model |
C. | Thin client server model |
D. | None of these |
Answer» B. Fat client server model |
353. |
In system models, object is |
A. | An entity that has a state and defined set of operations that operates on that state |
B. | Software program |
C. | Programming language, that develops any given program |
D. | None of these |
Answer» A. An entity that has a state and defined set of operations that operates on that state |
354. |
When the state of object changes by internal operations, executing within the object it self, then these objects are referred as |
A. | Active object |
B. | Inactive object |
C. | Silent object |
D. | None of these |
Answer» A. Active object |
355. |
The objects that are realized on call as parallel process with method corresponding to defined object operations can be referred as |
A. | Active object |
B. | Servers |
C. | Modules |
D. | None of these |
Answer» B. Servers |
356. |
For real time system following is not true |
A. | Correct functioning of the system depends on the result produced by the system |
B. | Correct functioning of the system depends on the time at which the results are produced |
C. | The time of processing affects the system output |
D. | The time of processing does not affects the system out-put |
Answer» D. The time of processing does not affects the system out-put |
357. |
If in a software system, the operation is degraded if results are not produced according to the specified timing require- ments then the software system is referred as |
A. | Soft real time system |
B. | hard real time system |
C. | Real time system |
D. | None of these |
Answer» A. Soft real time system |
358. |
If in a software system, the operation is incorrect if results are not produced accor- ding to the specified timing requirements then the software system is referred as |
A. | Soft real time system |
B. | Hard real time system |
C. | Real time system |
D. | None of these |
Answer» A. Soft real time system |
359. |
Degree to which a system or component performs only the necessary functions relevant to a particular purpose |
A. | Abstractness |
B. | Acceptable risk |
C. | Acceptance testing |
D. | None of these |
Answer» A. Abstractness |
360. |
Subject to probability of hazard, arising will not raise cost factors is referred as |
A. | Abstractness |
B. | Acceptable risk |
C. | Acceptance testing |
D. | None of these |
Answer» B. Acceptable risk |
361. |
Formal testing conducted to determine whether a system satisfies its acceptance criteria and to enable the customer to determine whether to accept the system |
A. | Abstractness |
B. | Acceptable risk |
C. | Acceptance testing |
D. | None of these |
Answer» C. Acceptance testing |
362. |
Truthfulness with which software satisfies differing system constraints and user needs is |
A. | Active objects |
B. | Activity |
C. | Adaptability |
D. | None of these |
Answer» C. Adaptability |
363. |
Adaptive measures are |
A. | Quality measures that address how easily a system can evolve or migrate |
B. | Piece of software that acts to accomplish tasks on behalf of its user |
C. | A quantitative option analysis that allows the cost of various options to be compu- ted, and options can be compared on objective basis |
D. | Extent to which a software system or component allows for or supports anonymous transactions |
Answer» A. Quality measures that address how easily a system can evolve or migrate |
364. |
An Acquisition cycle time is |
A. | Unplanned events, which results in injury, damage to property, or to the environment |
B. | Quantitative measure of the magnitude of error |
C. | Period that starts when a system is considered and ends when the product meets its initial operational capability |
D. | All the above |
Answer» C. Period that starts when a system is considered and ends when the product meets its initial operational capability |
365. |
An accuracy is |
A. | Unplanned events, which results in injury, damage to property, or to the environment |
B. | Quantitative measure of the magnitude of error |
C. | Period that starts when a system is considered and ends when the product meets its initial operational capability |
D. | All the above |
Answer» B. Quantitative measure of the magnitude of error |
366. |
Here the state of the object changes by internal operations executing within the object itself. And also object continually executes and operations never suspend itself is referred as |
A. | Active objects |
B. | Activity |
C. | Adaptability |
D. | None of these |
Answer» A. Active objects |
367. |
A clearly defined objective, entry and exit conditions which is normally is atomic is referred as |
A. | Active objects |
B. | Activity |
C. | Adaptability |
D. | None of these |
Answer» B. Activity |
368. |
Agents are |
A. | Quality measures that address how easily a system can evolve or migrate |
B. | Piece of software that acts to accomplish tasks on behalf of its user |
C. | A quantitative option analysis that allows the cost of various options to be compu- ted, and options can be compared on objective basis |
D. | Extent to which a software system or component allows for or supports anonymous transactions |
Answer» B. Piece of software that acts to accomplish tasks on behalf of its user |
369. |
Algorithmic cost modeling is |
A. | Quality measures that address how easily a system can evolve or migrate |
B. | Piece of software that acts to accomplish tasks on behalf of its user |
C. | A quantitative option analysis that allows the cost of various options to be computed, and options can be compared on objective basis |
D. | Extent to which a software system or component allows for or supports anonymous transactions |
Answer» A. Quality measures that address how easily a system can evolve or migrate |
370. |
Method of defining a collection of hardware and software components and their interfaces to establish the framework for the development of a computer system |
A. | As low as reasonably practical (ALARP) risk |
B. | Architectural design |
C. | Attack |
D. | None of these |
Answer» B. Architectural design |
371. |
Probability of an accident arising because of hazard is minimum subject of other costs |
A. | As low as reasonably practical (ALARP) risk |
B. | Architectural design |
C. | Attack |
D. | None of these |
Answer» A. As low as reasonably practical (ALARP) risk |
372. |
Fault tolerance system are |
A. | These system runs on a single proce- ssor or an integrated group of processors |
B. | A system where each sub-system can respond to generated events where the events might be generated from other sub-systems or from the environment of the system. |
C. | A system continues in operation after some system faults have manifested themselves. |
D. | A system whose operation is incorrect, if results are not produced according to the timing specifications |
Answer» C. A system continues in operation after some system faults have manifested themselves. |
373. |
The misuse of system vulnerability is |
A. | As low as reasonably practical (ALARP) risk |
B. | Architectural design |
C. | Attack |
D. | None of these |
Answer» C. Attack |
374. |
Attribute-based identification is |
A. | Here each component has a unique name and an associated set of attribute, which differs for each version of component |
B. | Extent to which a software system records information concerning transactions performed against the system. |
C. | Extent to which a system or component is operational and accessible when required for use |
D. | They are used to describe the over all behavior of the system. Auditable is |
Answer» A. Here each component has a unique name and an associated set of attribute, which differs for each version of component |
375. |
Availability is |
A. | Here each component has a unique name and an associated set of attribute, which differs for each version of component |
B. | Extent to which a software system records information concerning transac- tions performed against the system. |
C. | Extent to which a system or component is operational and accessible when required for use |
D. | They are used to describe the over all behavior of the system. |
Answer» C. Extent to which a system or component is operational and accessible when required for use |
376. |
Behavioral models is |
A. | Here each component has a unique name and an associated set of attribute, which differs for each version of component |
B. | Extent to which a software system records information concerning transac- tions performed against the system. |
C. | Extent to which a system or component is operational and accessible when required for use |
D. | Used to describe the over all behavior of the system |
Answer» D. Used to describe the over all behavior of the system |
377. |
In Bottom-up integration |
A. | The low-level components of a system are integrated and tested before the higher-level components have been developed |
B. | The testing process starts with modules at lower levels in the hierarchy and works up the hierarchy of modules until the final module is tested. |
C. | An event driven control system, where an event is broadcasted to each sub- system and any sub-system that can handle that event responds to it. |
D. | Control starts of the top of a sub routine hierarchy and through sub routine calls passes to lower levels. |
Answer» A. The low-level components of a system are integrated and tested before the higher-level components have been developed |
378. |
In Broadcast models |
A. | The low-level components of a system are integrated and tested before the higher-level components have been developed. |
B. | The testing process starts with modules at lower levels in the hierarchy and works up the hierarchy of modules until the final module is tested |
C. | An event driven control system, where an event is broadcasted to each sub- system and any sub-system that can handle that event responds to it. |
D. | Control starts of the top of a sub routine hierarchy and through sub routine calls passes to lower levels. |
Answer» C. An event driven control system, where an event is broadcasted to each sub- system and any sub-system that can handle that event responds to it. |
379. |
Bottom-up testing |
A. | The low-level components of a system are integrated and tested before the higher-level components have been developed. |
B. | The testing process starts with modules at lower levels in the hierarchy and works up the hierarchy of modules until the final module is tested. |
C. | An event driven control system, where an event is broadcasted to each sub- system and any sub-system that can handle that event responds to it. |
D. | Control starts of the top of a sub routine hierarchy and through sub routine calls passes to lower levels. |
Answer» B. The testing process starts with modules at lower levels in the hierarchy and works up the hierarchy of modules until the final module is tested. |
380. |
In Call-return control model |
A. | The low-level components of a system are integrated and tested before the higher-level components have been developed. |
B. | The testing process starts with modules at lower levels in the hierarchy and works up the hierarchy of modules until the final module is tested. |
C. | An event driven control system, where an event is broadcasted to each sub- system and any sub-system that can handle that event responds to it. |
D. | Control starts of the top of a sub routine hierarchy and through sub routine calls passes to lower levels |
Answer» D. Control starts of the top of a sub routine hierarchy and through sub routine calls passes to lower levels |
381. |
Capacity is |
A. | A measure of the amount of work a system can perform |
B. | It provides automated support for software process. |
C. | Support individual process tasks |
D. | Set of tools to support a particular phase of software process such as design, implementation or testing. |
Answer» A. A measure of the amount of work a system can perform |
382. |
CASE (Computer Aided Software Engineering) is |
A. | A measure of the amount of work a system can perform |
B. | It provides automated support for software process. |
C. | Support individual process tasks |
D. | Set of tools to support a particular phase of software process such as design, implementation or testing: |
Answer» B. It provides automated support for software process. |
383. |
CASE Tools |
A. | A measure of the amount of work a system can perform |
B. | It provides automated support for software process. |
C. | Support individual process tasks |
D. | Set of tools to support a particular phase of software process such as design, implementation or testing |
Answer» C. Support individual process tasks |
384. |
CASE Workbench |
A. | A measure of the amount of work a system can perform |
B. | It provides automated support for software process. |
C. | Support individual process tasks |
D. | Set of tools to support a particular phase of software process such as design, implementation or testing |
Answer» A. A measure of the amount of work a system can perform |
385. |
Centralized control models |
A. | Here one system is designed as the system controller and has responsibility for managing the execution of other subsystems. |
B. | Each system is named as in attribute- based identification and associated with one or more change requests. |
C. | An object class inheritance diagram, how entities have common characteristics. |
D. | The objective of this software development is zero-defect software. |
Answer» A. Here one system is designed as the system controller and has responsibility for managing the execution of other subsystems. |
386. |
Change-oriented identification |
A. | One system is designed as the system controller and has responsibility for managing the execution of other subsystems. |
B. | Each system is named as in attribute- based identification and associated with one or more change requests. |
C. | An object class inheritance diagram, how entities have common characteristics. |
D. | The objective of this software development is zero-defect software. |
Answer» B. Each system is named as in attribute- based identification and associated with one or more change requests. |
387. |
Hard real time systems are |
A. | These system runs on a single processor or an integrated group of processors |
B. | A system where each sub-system can respond to generated events where the events might be generated from other sub-systems or from the environment of the system. |
C. | A system continues in operation after some system faults have manifested themselves. |
D. | A system whose operation is incorrect, if results are not produced according to the timing specifications |
Answer» D. A system whose operation is incorrect, if results are not produced according to the timing specifications |
388. |
Classification model |
A. | One system is designed as the system controller and has responsibility for managing the execution of other subsystems. |
B. | Each system is named as in attribute- based identification and associated with one or more change requests. |
C. | An object class inheritance diagram, how entities have common characteristics. |
D. | The objective of this software develop- ment is zero-defect software. |
Answer» C. An object class inheritance diagram, how entities have common characteristics. |
389. |
Clean room software development |
A. | One system is designed as the system controller and has responsibility for managing the execution of other subsystems. |
B. | Each system is named as in attribute- based identification and associated with one or more change requests. |
C. | An object class inheritance diagram, how entities have common characteristics. |
D. | The objective is to develop zero-defect software. |
Answer» D. The objective is to develop zero-defect software. |
390. |
COCOMO cost model |
A. | It takes project, product hardware and personnel attributes into account when formulating a cost estimate. |
B. | In it server provides set of services and set of clients uses these services. |
C. | Extent to which standards are used to achieve interoperability. |
D. | None of these |
Answer» A. It takes project, product hardware and personnel attributes into account when formulating a cost estimate. |
391. |
Client server architecture |
A. | It takes project, product hardware and personnel attributes into account when formulating a cost estimate. |
B. | In it server provides set of services and set of clients uses these services. |
C. | Extent to which standards are used to achieve interoperability. |
D. | None of these |
Answer» B. In it server provides set of services and set of clients uses these services. |
392. |
Commonality |
A. | It takes project, product hardware and personnel attributes into account when formulating a cost estimate. |
B. | In it server provides set of services and set of clients uses these services. |
C. | Extent to which standards are used to achieve interoperability |
D. | None of these |
Answer» C. Extent to which standards are used to achieve interoperability |
393. |
Transforming of logic and data from design specifications (design descriptions) into a programming language |
A. | Compatibility |
B. | Compactness |
C. | Coding |
D. | Communication |
Answer» C. Coding |
394. |
An inter change of information between computer systems and peoples or between people. |
A. | Compatibility |
B. | Compactness |
C. | Coding |
D. | Communication |
Answer» D. Communication |
395. |
Extent to which a system or component makes efficient use of its data storage space- occupies a small volume. |
A. | Compatibility |
B. | Compactness |
C. | Code |
D. | Communication |
Answer» B. Compactness |
396. |
Entity-relation model is |
A. | It describes the basic entities in the design and relation between them. |
B. | Observational techniques used to understand social and organizational requirements. |
C. | It is based on the idea of developing an initial implementation, exposing it uses on requirement and refining it through many versions until an adequate system has been developed. |
D. | Based on an idea of developing an initial implementation, exposing this to uses comment and retiring it until and adequate system has been developed. |
Answer» A. It describes the basic entities in the design and relation between them. |
397. |
Ability of two or more systems or components to perform their required functions while sharing the same hardware or software environment |
A. | Compatibility |
B. | Compactness |
C. | Code |
D. | Communication |
Answer» A. Compatibility |
398. |
Completeness in software system is referred as |
A. | Extent to which all the parts of a software system or component are present and each of its parts is fully specified and developed. |
B. | Testing of individual hardware/software components |
C. | An Entity-relation (E-R) diagram show how entities in the system are composed of other entities. |
D. | It consists of wide range of different types of computer programs, which be used to support software process activities such as a requirement analysis, system modeling, debugging and testing. |
Answer» A. Extent to which all the parts of a software system or component are present and each of its parts is fully specified and developed. |
399. |
Composition model is |
A. | Extent to which all the parts of a software system or component are present and each of its parts is fully specified and developed. |
B. | Testing of individual hardware/software components |
C. | An Entity-relation (E-R) diagram show how entities in the system are composed of other entities |
D. | It consists of wide range of different types of computer programs, which be used to support software process activities such as a requirement analysis, system modeling, debugging and testing. |
Answer» C. An Entity-relation (E-R) diagram show how entities in the system are composed of other entities |
400. |
Match the following :
|
A. | A-1, B-2,C-3,D-4 |
B. | A-4,B-3,C-2,D-1 |
C. | A-3, B-2,C-1,D-4 |
D. | None is true |
Answer» A. A-1, B-2,C-3,D-4 |
Done Studing? Take A Test.
Great job completing your study session! Now it's time to put your knowledge to the test. Challenge yourself, see how much you've learned, and identify areas for improvement. Don’t worry, this is all part of the journey to mastery. Ready for the next step? Take a quiz to solidify what you've just studied.