What is it?
In simple terms, Cloud Computing is the delivery of computing services to a user or an organization—servers, storage, databases, networking, software, analytics, intelligence and more—over the Internet ("the Cloud"). Cloud Computing is usually provided using virtualization, in where the physical computer hardware is abstracted from the software & applications that are running on that hardware.
Cloud Computing services can be provided several different ways, via public, private or hybrid clouds. Public cloud computing is provided by 3rd party service providers (such as Amazon Web Services, Microsoft Azure, or Google Cloud) who own the physical hardware and then sell these resources online via a secure internet connection. In a private cloud, an enterprise builds a cloud within their own data center by running applications on virtual servers that may reside on any number of available physical machines. Hybrid cloud computing is where a mixture of private and public cloud computing services are used together in tandem.
As part of RightScale's 2018 State of the Cloud report, an in-depth survey was conducted of 997 IT professionals about their adoption of cloud infrastructure and related technologies, an astonishing 96% of respondents indicated that they run their enterprise's workloads in a cloud – either public, private or hybrid.
Why do you need it? Who needs it?
Cloud Computing is extremely convenient and cost effective – since the user of the computing / storage / networking resources does not need to be physically located next to the hardware they are using, this hardware can be located at remote locations (where it is easier or cheaper to maintain) or even "outsourced" to public cloud providers (such as Amazon, Microsoft or Google etc.). There does not need to be any special hardware, wireless network connection or infrastructure between the user and the computing resource, they simply use it via the Internet. Furthermore, due to the fact that the computing resources can be accessed remotely from anywhere, they can easily be "pooled" together at a central location. Since each remote user won't be using the resources 100% of the time, the resources can be shared and provisioned more efficiently, meaning that lot less physical resources are need compared with the scenario if each user required their own physical computer resource.
Deciding whether to use adopt cloud computing with a public or private cloud or a combination of both will depend on many different considerations. Public cloud services are highly cost efficient because there is no capital expense to buy or maintain hardware and facilities. There is also greater flexibility for users because organizations pay only for the computing resources that they actually use. A private cloud ensures that an organization hosts and controls its own data, which may be necessary for compliance, security or privacy reasons in highly regulated industries like healthcare and financial services. Companies that have invested millions of dollars in their data centers over the years also will want to protect those investments by leveraging them for private clouds.
A hybrid cloud can offer the advantages of both – organizations can own and control their own data onsite, while connecting with public cloud services to private additional compute and storage capabilities in times of peak usage – referred to as "cloud bursting capabilities". The potential downside of a hybrid cloud can be the increased complexity of managing and connecting different cloud platforms.
How is GIGABYTE helpful?
GIGABYTE is one of the industry leaders in providing the physical server hardware needed to build a private cloud. Our large variety of server systems based on Intel Xeon Scalable, AMD EPYC and Marvell ThunderX2 processors provide an ideal base to build an organization's cloud computing infrastructure.
Furthermore, GIGABYTE is also collaborating with a variety of software solution providers to deliver a combined hardware / software package to provide easier and faster deployment of a private or hybrid cloud, to provide virtualization and sharing of compute, GPU and storage resources.
Tech GuideWhat is a Server? A Tech Guide by GIGABYTE
In the modern age, we enjoy an incredible amount of computing power—not because of any device that we own, but because of the servers we are connected to. They handle all our myriad requests, whether it is to send an email, play a game, or find a restaurant. They are the inventions that make our intrinsically connected age of digital information possible. But what, exactly, is a server? GIGABYTE Technology, an industry leader in high-performance servers, presents our latest Tech Guide. We delve into what a server is, how it works, and what exciting new breakthroughs GIGABYTE has made in the field of server solutions.
Success CaseGIGABYTE 5G and Edge Solutions at MWC 2021: The Servers of Choice for Taipei Music Center, ITRI and New Taipei Police, NVIDIA Aerial SDK
GIGABYTE’s E-Series Edge Servers are the highlight of MWC Barcelona 2021. This product line is the fruition of GIGABYTE’s long history of providing 5G and edge computing solutions for key clients, including Taipei Music Center, which wanted to stage VR concerts, and ITRI and New Taipei Police, which needed to maintain order during the Pokémon GO craze. The E251-U70, the first model in the E-Series, exemplifies industry know-how and design philosophy distilled from previous success cases. It has been chosen by NVIDIA to be part of its Aerial Developer Kit.
By using GIGABYTE, Spain’s Institute for Cross-Disciplinary Physics and Complex Systems is pitting the world’s foremost server solutions against some of the world’s most pressing issues, including the effects of climate change, the effects of pollution, and the COVID-19 pandemic. GIGABYTE servers are up to the diverse and daunting tasks, because they are designed for high performance computing, intensive numerical simulations, AI development, and big data management.
Arizona’s Lowell Observatory is studying the Sun with GIGABYTE’s G482-Z50 GPU Server in an effort to filter out “stellar noise” when looking for habitable planets outside of our Solar System. The server’s AMD EPYC™ processors, parallel computing capabilities, excellent scalability, and industry-leading stability are all features that qualify it for this astronomical task, making the discovery of a true “Twin Earth” achievable within our lifetime.