Podcast
Questions and Answers
Which computing paradigm is best suited for applications requiring high scalability and fault tolerance, but requires efficient communication?
Which computing paradigm is best suited for applications requiring high scalability and fault tolerance, but requires efficient communication?
- Cloud Computing
- Distributed Computing (correct)
- Single Computing
- Parallel Computing
Which of the following is a primary characteristic of edge computing that distinguishes it from cloud computing?
Which of the following is a primary characteristic of edge computing that distinguishes it from cloud computing?
- Dependence on consistent internet connectivity
- Processing data closer to the source, reducing latency (correct)
- Unlimited resources for processing data
- Centralized data processing in large data centers
What is a key advantage of cloud computing over traditional computing paradigms?
What is a key advantage of cloud computing over traditional computing paradigms?
- Enhanced real-time processing capabilities
- Lower dependency on internet connectivity
- Greater control over physical hardware
- Cost-efficiency and scalability through on-demand resources (correct)
In parallel computing, what is the primary role of 'shared memory'?
In parallel computing, what is the primary role of 'shared memory'?
What is the main advantage of using distributed computing for large-scale data analytics?
What is the main advantage of using distributed computing for large-scale data analytics?
Which of the following best describes the 'ABA problem' in the context of lock-free data structures?
Which of the following best describes the 'ABA problem' in the context of lock-free data structures?
Which type of memory model is most likely to be implemented in distributed systems due to the delays in communication?
Which type of memory model is most likely to be implemented in distributed systems due to the delays in communication?
In parallel computing, under what condition would Amdahl's Law predict minimal gains from increasing the number of processors?
In parallel computing, under what condition would Amdahl's Law predict minimal gains from increasing the number of processors?
What role do 'memory barriers' play in ensuring correct execution in parallel computing?
What role do 'memory barriers' play in ensuring correct execution in parallel computing?
What is the primary goal of 'load balancing' in parallel computing?
What is the primary goal of 'load balancing' in parallel computing?
Which of the following computing types is most suitable for cryptography, AI, and complex simulations, but is still under heavy research and requires specialized conditions?
Which of the following computing types is most suitable for cryptography, AI, and complex simulations, but is still under heavy research and requires specialized conditions?
Which of the following is a disadvantage of Parallel Computing?
Which of the following is a disadvantage of Parallel Computing?
Which feature is used to describe the ability of a system to handle increased load by adding more resources?
Which feature is used to describe the ability of a system to handle increased load by adding more resources?
Which of the following best describes the difference between concurrency and parallelism?
Which of the following best describes the difference between concurrency and parallelism?
What is a 'critical section' in concurrent programming, and why is mutual exclusion important in this context?
What is a 'critical section' in concurrent programming, and why is mutual exclusion important in this context?
Which of the following algorithms or techniques is used to solve mutual exclusion problems?
Which of the following algorithms or techniques is used to solve mutual exclusion problems?
Which condition is NOT necessary for a deadlock to occur?
Which condition is NOT necessary for a deadlock to occur?
What is the primary function of 'cache coherence' protocols in shared-memory multiprocessor systems?
What is the primary function of 'cache coherence' protocols in shared-memory multiprocessor systems?
Which of the following techniques can help to minimize 'false sharing' in parallel programs?
Which of the following techniques can help to minimize 'false sharing' in parallel programs?
In the context of interconnection networks, what is a primary advantage of a 'switched network'?
In the context of interconnection networks, what is a primary advantage of a 'switched network'?
Flashcards
Single Computing
Single Computing
A computing approach that uses a single processor to execute tasks sequentially.
Parallel Computing
Parallel Computing
Computing that uses multiple processors or cores to perform tasks simultaneously.
Distributed Computing
Distributed Computing
Computing that uses multiple networked computers working together to complete tasks.
Cloud Computing
Cloud Computing
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Edge Computing
Edge Computing
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Mobile Computing
Mobile Computing
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Quantum Computing
Quantum Computing
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Concurrency
Concurrency
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Parallelism
Parallelism
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Threads
Threads
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Cores
Cores
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Shared Memory
Shared Memory
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Synchronization
Synchronization
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Granularity
Granularity
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Load Balancing
Load Balancing
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Amdahl's Law
Amdahl's Law
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Node
Node
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Cluster
Cluster
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Speedup
Speedup
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Efficiency
Efficiency
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Study Notes
Computing Paradigms Overview
- Different methods for structuring computer architecture to execute tasks
Single Computing
- Uses a single processor
- Executes tasks sequentially
- Simple and cost-effective
- Limited performance
- Suited for personal computers and embedded systems
Parallel Computing
- Employs multiple processors or cores
- Executes tasks simultaneously
- Achieves faster execution for complex computations
- Used in AI and scientific computing
- Examples: multi-core processors, GPUs, supercomputers
Distributed Computing
- Multiple networked computers collaborate
- Computers work together to complete tasks
- Highly scalable and fault-tolerant
- Requires efficient communication
- Applies to cloud computing, blockchain, and big data clusters
Cloud Computing
- Delivers computing services, including storage, processing, and software via the internet
- Cost-efficient and scalable
- Depends on internet connectivity
- Examples include AWS, Google Cloud, and Microsoft Azure
Edge Computing
- Processes data closer to the source, like IoT devices
- Reduces latency and enhances real-time processing
- Limited resources
- Examples include smart cities, autonomous vehicles, and IoT
Mobile Computing
- Allows computing on portable devices like smartphones and tablets
- Convenient and mobile
- Limited by hardware and battery life
- Smartphones, tablets, and laptops
Quantum Computing
- Employs quantum bits (qubits) to achieve exponentially faster calculations
- Useful for cryptography, AI, and simulations
- Still under research and development
- Examples include IBM Quantum, Google Sycamore, and D-Wave
Advantages & Disadvantages of Paradigms
Single Computing
- Advantages: Simple, cost-effective, and easy to maintain.
- Disadvantages: Slow performance, limited scalability.
Parallel Computing
- Advantages: Faster processing, efficient for complex tasks.
- Disadvantages: Expensive hardware, requires parallel programming.
Distributed Computing
- Advantages: Scalable, high fault tolerance, efficient resource utilization
- Disadvantages: High communication overhead, security concerns
Cloud Computing
- Advantages: On-demand resources, cost-effective, scalable.
- Disadvantages: Internet dependency, potential security risks.
Edge Computing
- Advantages: Low latency, real-time processing, reduces cloud workload.
- Disadvantages: Limited processing power, potential security issues.
Mobile Computing
- Advantages: Portable, flexible, convenient.
- Disadvantages: Battery limitations, lower processing power.
Quantum Computing
- Advantages: Exponentially faster for complex problems, future potential.
- Disadvantages: Expensive, still in early development, requires special conditions.
Comparative Analysis of Computing Paradigms
- These factors help compare different paradigms
- Processing Unit: Single CPU, Multiple CPUs/Cores, Multiple computers, Virtual Resources, Local IoT devices, Mobile devices, Qubits
- Execution: Sequential, Parallel, Distributed Tasks, Cloud-based, Real-time, On-device, Quantum
- Speed: Slow, Fast, Network Dependent, High Speed, Moderate, Exponentially Fast
- Scalability: Low, Moderate, High, Very High, Quantum type has High Scalability
- Fault Tolerance: Low, Moderate, High, Still Evolving
- Cost: Low, Moderate, (Hardware or Infrastructure), Very High
- Best for: Basic tasks, Scientific tasks, Cloud, IoT, Mobile, Cryptography
Summary of Computing Paradigms
- Single Computing: Suitable for personal and small tasks.
- Parallel Computing: Ideal for AI, simulations, and performance-intensive tasks.
- Distributed Computing: Used in cloud-based services, big data, and large-scale applications.
- Cloud Computing: Provides scalable online services and computing resources.
- Edge Computing: Best for IoT and real-time applications with low latency.
- Mobile Computing: Enables portable computing with smartphones, tablets, and laptops.
- Quantum Computing: A future technology capable of solving complex problems exponentially faster.
Overview of Single Computing
- Relies on one processor to perform tasks
- Differs from parallel/distributed computing
Characteristics of Single Computing
- Uses single CPU to execute instructions
- Tasks done in linear sequence
- Limited processing power
- Simple design, easy to implement
- System does not rely on networks for processing
Types of Single Computing Systems
- Single-core processing handles all tasks
- Early PCs and embedded systems are examples
- Single-user system design
- Personal Computer(PC) an example
- Executes tasks in a single task (MS-DOS)
- Shares time to run all tasks but relies on single CPU (Windows, macOS)
- Embedded systems dedicate tasks to appliances
- A microcontroller is an example of embedded systems
Benefits of Single Computing
- Lower hardware costs
- Consumes less power
- Easy to operate
- Reliable as the system has low chances of failure
Drawbacks of Single Computing
- Cannot handle extensive computation well
- Slower than multi-core
- Cannot be upgraded easily to handle higher workloads
- I/O operations overload and cause bottlenecks
Applications of Single Computing
- Used in personal computers
- Used in laptops and workstations
- Embedded systems are an example
- Used for simple data processing tasks
- Used in small business servers
Conclusion of Single Computing
- Ideal for less intensive applications
- Essential for personal and embedded systems
Comparison of Computing
- Sequential is used for single computing while parallel is used for parallel processing
- Single CPU for single computing, multiple for parallel or distributed
- Execution done in time for single, processed in parallel for others
- Faster processing for parallel, even faster for distributed
- Scalability is distributed, network determines it
- Fault tolerance high for distributed
- Communication overhead none for single unit, required for networked
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