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Imagine you want to watch a live football match online. If the video has to travel a long way to be processed, you may experience lags. But if the process is closer to your location, you’ll watch a smooth and fast video of the match. What’s this topic’s connection with edge computing and cloud computing? It is the idea behind them. Edge computing refers to networks and devices close to the end user, allowing data processing closer to the source. On the other hand, cloud computing stores and processes data via a huge worldwide network of distant servers. But which one is a better choice to run your applications? In this blog post, we’ll break down the differences between edge computing and cloud computing and explore when to use each one.
What Is Cloud Computing?
To answer what is cloud computing, we can say it is a model for delivering IT services over the Internet. Users can access and use shared pools of reconfigurable computing resources, such as servers, storage, databases, operating systems, and applications, without worrying about maintaining the underlying infrastructure. Cloud computing is a set of features that ensure continuous access to tools and software. One of the key features of cloud computing is cost reduction, as costs are determined based on usage. For example, setting up online accounting software on a cloud platform costs much less than purchasing and setting up offline accounting software. Additionally, the software infrastructure and its management are the responsibility of the cloud computing service provider. This allows the buyer to have stable access to the service at a lower cost.
Benefits of cloud computing
Cloud computing allows you to scale your resources up or down based on your needs while saving money. Plus, they’re highly reliable and available, ensuring minimal downtime. Here we explain the advantages of cloud computing in detail:
- Scalability: Without the need to invest in expensive hardware, cloud computing allows businesses to upgrade their computing resources effortlessly. This enhances the organization’s agility and enables rapid responses to changing business needs.
- Affordability: For small and medium-sized organizations, cloud computing can be more cost-effective than traditional computing methods. This is because economies of scale enable cloud providers to offer computing power at a lower price.
- High Availability: Cloud computing provides high availability, and most cloud providers offer standard uptime guarantees. This makes it ideal for applications requiring constant availability, such as online stores or banking services.
- Simplified IT Management: By providing professional IT management services, cloud providers free up organizations to concentrate on their main goals rather than maintaining IT infrastructure.
- Automatic Updates: It's easier to get the newest services, software, and hardware, and updating systems usually only takes one click.
- Enhanced Reliability: By employing multiple redundant servers, cloud solutions increase the effectiveness and affordability of data backup, disaster recovery, and business continuity.
- Faster Deployment: Businesses can speed up their time to market by utilizing on-demand infrastructure, which saves time while configuring systems and deploying apps.
With a cloud VPS, you can host websites, apps, and other online services without having to manage physical servers.
Disadvantages of Cloud Computing
While offering many benefits, cloud computing comes with some challenges including:
- Security Risks: Cloud computing can pose additional security concerns, especially if the security measures implemented by the cloud provider are inadequate. Data breaches, unauthorized access, and other cyberattacks fall into this category.
- Dependence on Internet Connection: An Internet connection is essential for accessing cloud computing resources and data. If the connection is unstable or slow, it can be a disadvantage, potentially leading to reduced productivity or service outages.
- Limited Control: The level of control that companies have over their computing resources and data may be limited in cloud computing. Since businesses rely on cloud service providers to manage and maintain their infrastructure, they may not be able to fully customize or optimize their systems.
- Longer Outage Time: As data is transferred from edge to cloud, it takes longer than edge computing.
Cloud Computing Use Cases
Even if you're not aware of it, cloud computing is most likely already being used by you. Cloud computing is at the backend of each online service you use to send emails, edit documents, watch movies and TV episodes, play games, listen to music, or save images and other things. This technology is used for a variety of reasons by organizations of all kinds, including government agencies, nonprofits, tiny startups, and multinational enterprises. The following are some use cases of cloud services:
Save and distribute files
We can easily save and share files due to services such as Dropbox and Google Drive. These services use cloud technologies to ensure that your information is available at all times and from any location.
Playing Games Online
Cloud computing is critical for the high performance and speed of online games such as Fortnite and PlayerUnknown's Battlegrounds. These games deliver an unparalleled gaming experience by supporting millions of concurrent gamers using cloud servers or virtual private servers.
Create cloud-native applications
Cloud-native technologies such as containers, Kubernetes, microservices architecture, API-centric communication, and DevOps enable you to quickly develop, publish, and scale web, mobile, and API applications.
Streaming of Audio and Video
High-quality audio and video streaming with worldwide spread is made possible by cloud computing. Any device, anywhere, at any time, can provide access to content.
Provide Software Upon Request
You can give clients the newest software upgrades and versions whenever they need them by using Software as a Service (SaaS).
Develop and Test Apps
Reduce the time and expense of app development by utilizing scalable cloud infrastructure.
Learning and Artificial Intelligence
A lot of AI and machine learning applications need a lot of resources and strong servers. Businesses may quickly use these resources and create sophisticated algorithms thanks to cloud computing.
Analytics of Data
Combine cloud-based data from many departments and teams. After that, use cloud services such as AI and machine learning to get new views and improve decision-making.
You may be interested to know: The difference between cloud hosting and web hosting.
What Is Edge Computing?
Edge computing is a distributed computing architecture that brings computing and data storage closer to the data source. Data processing occurs at the edge of the network, near the device that generates the data, rather than at a central location, such as a data center. Reduced latency and bandwidth requirements are desirable outcomes of edge computing when transferring large amounts of data to a processing center. Edge computing facilitates real-time decision-making by processing data close to the edge and accelerating data transfers to and from the cloud.
IoT devices, autonomous vehicles, and augmented or virtual reality (AR/VR) systems require the low-latency benefits of edge computing. Applications that generate large amounts of data, such as those used in industry, video, and image analytics, benefit from intelligent processing at the edge.
Benefits of edge computing
The goal of edge computing is to speed up data processing and transmission. For jobs that require speed, such as self-driving cars or live video streaming, this is very important. Edge computing can greatly enhance performance and user experience by processing data closer to its source. Here are the advantages of edge computing in detail:
- Reduced Latency: Edge computing enables data processing and analysis to be performed faster at the source, reducing the time it takes for data to be transferred to the cloud. Due to the significant reduction in latency, this is ideal for real-time decision-making applications such as robotics, industrial automation, and autonomous vehicles.
- Increased Security: By enabling data processing and analysis closer to the source and reducing the amount of data that needs to be transferred to the cloud, edge computing can enhance security. As a result, it becomes more difficult for hackers to compromise the system because the attack surface and potential vulnerabilities are reduced.
- Greater Bandwidth Efficiency: By enabling local data processing and analysis, edge computing reduces the amount of data that needs to be transferred to the cloud. This leads to better bandwidth efficiency, which can reduce data transfer costs and enable faster processing.
- Real-Time Analytics: By processing data locally and eliminating the need for back-and-forth data exchanges with the central cloud, edge computing makes real-time data analysis possible. In addition to increasing operating efficiency and extending equipment lifespan, this enables enterprises to obtain insights instantly.
- Network Efficiency: By processing data directly on devices, edge computing maximizes network performance. By lowering the amount of data moving between networks, congestion is avoided and processing speeds are increased, all of which improve user experience.
Disadvantages of Edge Computing
Now, let’s take a look at the challenges of edge computing that you should be aware of:
- Low Processing Power: Compared to cloud computing infrastructures, edge computing devices often have less processing power and storage space. As a result, the types of applications that can be used on edge devices may be limited.
- Increased Complexity: Implementing edge computing can be more complex than standard cloud computing strategies. This is because edge computing requires the installation of processing and storage resources close to the source, which can make management and maintenance more challenging.
- Increased Cost: In terms of hardware and maintenance, edge computing can be more expensive than cloud computing. This is because edge computing necessitates the deployment of processing and storage resources that can be more costly to set up and maintain.
- Reduced Control and Reliability: Although edge computing is a system that is distributed, several of its components require user attention and are less dependable.
- Compatibility: It can be difficult to manage on edge when certain IoT devices produce a lot of data every second.
- Contracts & Lock-In: To accomplish this, we must accept or sign a few crucial contracts and lock-ins.
Edge Computing Use cases
Edge computing is now widely used in practically every industry. Many firms have chosen edge computing environments because faster processing times and optimized data flow benefit their infrastructure. Also, IoT devices frequently rely on edge computing for their core functionality. As a result, edge computing has become a critical component for any firm that uses IoT devices. Here are some use cases of edge computing:
Manufacturing
Edge computing aids the manufacturing process by enabling edge devices to quickly provide information to machines, robots, and users without consuming excessive bandwidth. For example, scanners can check the condition of a car being built as it moves along an assembly line, helping users improve processes and ensure safety.
Healthcare
Edge computing plays a vital role in healthcare. Timely patient care depends on immediate access to information. Edge devices instantly transmit data on patients' vital signs, enabling doctors and nurses to make quick decisions based on accurate information.
Transportation
The transportation industry greatly benefits from edge computing due to the vast amount of useful data vehicles and drivers can use to enhance safety and improve both the passenger and driver experience. Autonomous vehicles, for instance, can receive information from their surroundings and other vehicles, using it to make decisions.
Agriculture
The agriculture industry leverages edge computing to enhance data processing while reducing bandwidth needs and helping optimize crop management, care, and harvesting. Additionally, data on the health and performance of animals, such as dairy cows, can be processed to improve production expectations, animal care, and resource management on farms.
Telecom
Telecommunications has been and will continue to be one of the most significant beneficiaries and providers of edge computing. Telecom organizations assist enterprises in deploying networks and rely on edge computing topologies to connect a wide range of devices to organizational networks near the edge. Devices, including virtual reality headsets, gaming systems, and IoT devices in manufacturing environments, interface with edge computing topologies deployed by telecom providers.
Difference between Edge Computing and Cloud Computing
With the provided information, now you know the differences between edge computing and cloud computing. But for better understanding, we organized all of their differences in the following table. So, by just taking a look, you can understand both:
Parameter |
Edge Computing |
Cloud Computing |
Definition |
Distributed computing architecture that brings computing and data storage closer to the data source. |
Model for delivering IT services over the internet from centralized data centers. |
Location of Processing |
Processing occurs at the edge of the network, near the device generating the data. |
Data is processed at a central location, typically a data center. |
Bandwidth Requirements |
Requires low bandwidth, as data is processed close to its source. |
Higher bandwidth is needed because data is transmitted to a centralized location for processing. |
Costs |
Typically more expensive, as specialized hardware and software are required at the edge. |
Less expensive, as users pay only for the resources they use, avoiding the need for dedicated hardware. |
Scalability |
Scaling can be challenging, as it requires additional resources at the edge. |
Easier to scale up or down quickly, leveraging cloud providers' resources. |
Use Cases |
Ideal for low-latency applications like IoT, autonomous vehicles, and AR/VR. |
Suitable for non-time-sensitive applications like web apps, email, and file storage. |
Data Security |
Data security can be better, as processing occurs close to the source and doesn't need to traverse networks. |
More challenging, as data must be transmitted over the network, which may expose it to additional risks. |
Processing Location |
Data is processed locally, and on-site, which allows for faster decision-making and real-time analysis. |
Processes data on centralized cloud servers, not as optimized for real-time analysis. |
Suitability for Latency |
Ideal for real-time, low-latency applications where every millisecond counts. |
Suitable for applications that are not sensitive to delays or latency. |
Processing Power |
Limited processing power due to reliance on devices, makes it suitable for lightweight tasks. |
Provides high processing power, suitable for large-scale, in-depth analysis. |
Internet Connectivity |
Can operate without a constant internet connection, making it more reliable in remote areas. |
Requires consistent internet connectivity for data transmission and access to services. |
Performance and Bandwidth |
Better for real-time processing with reduced latency and bandwidth usage. |
Performance can be affected by network latency and bandwidth limitations when sending large amounts of data. |
Conclusion
There are two distinct approaches to data management and processing: edge computing and cloud computing. Edge computing moves computational power closer to the data source, making it perfect for jobs requiring speedy answers, such as IoT devices or self-driving cars. In contrast, cloud computing provides powerful, scalable computing resources that are located far away.