Category "Blog"

Count on Sify to accomplish your migration goals

Enterprises worldwide are in a quest to leverage the true potential of the Cloud. As Cloud allows organizations to unify disparate business functions, streamline processes, enhance organizational efficiency, achieve resilience, and control cost, decision-makers across the business world are looking for the most suitable Cloud and a competent Cloud partner.

Herein, Oracle Cloud has certainly been able to garner attention by helping organizations optimize IT infrastructure, achieve operational excellence, and reduce cost significantly. Oracle ensures a very unique value proposition as it uses the same on-premises products and tools for Cloud. It is built from on-prem deployments, unlike other Cloud providers which started with a Cloud-native approach only. As organizations transition their processes, business functions, or implement a complete transformation to the Cloud, the “integration” between different Cloud and on-premise enterprise applications will be the focus. We know that not all enterprise applications will migrate to the Cloud at the same time, therefore it is imperative that existing on-premise integration is utilized to communicate between the on-premise applications and the Cloud applications via a common cloud integration platform. In such a situation, Oracle certainly ensures distinct advantages.

Oracle is the only cloud provider to offer guaranteed availability, management, and performance SLAs. Moreover, it also ensures greater control and visibility of Cloud resources, which further helps in improving top-line business performance. That’s why organizations are keen to migrate to Oracle Cloud.

However, organizations face distinct challenges and complications while executing the migration plan. As we work with organizations (across verticals) for their Cloud transition or migration projects, we have gained expertise in helping them identify all pitfalls and follow a trusted approach to create and implement successful migration to Oracle Cloud.

This blog highlights the major challenges faced by organizations during their migration journey to Oracle Cloud and the best practices to tackle those challenges. Furthermore, we shall discuss how Oracle Cloud, Sify’s hybrid IT-ready data centers (with Cloud Adjacent and Near Cloud data centers), and Network Services can help you accomplish your Cloud transformation goals competently.

CHALLENGE: Not every workload is Cloud-ready for Lift-N-Shift

BEST PRACTICE: De-couple the workloads into different categories

It’s a well-known fact that not all workloads can be migrated to Cloud using the same migration strategies. Therefore, Sify has come up with a comprehensive range of Cloud Assessment Services which help you decouple the workloads into two broad categories – the workload that must be migrated to Oracle Cloud and the workloads that can be hosted in Sify’s Hybrid IT-ready DC. This will help you draft the most appropriate and cost-effective Cloud adoption/migration plan.

CHALLENGE: Inter-dependency between applications

BEST PRACTICE: Build migration specific business case for each application

Sify’s Cloud Assessment and Migration Services help you identify inter-dependency between applications and build migration specific business case considering each application. Our Hybrid IT-ready data centers allow you to establish fast and secure interconnection among all your applications hosted in Oracle Cloud, without any network latency issue.

CHALLENGE: How to deal with legacy applications

BEST PRACTICE: Leverage Cloud Integration Platforms for hybrid deployments

As all enterprise applications cannot be migrated to Cloud due to architectures, dependencies, and cost, there needs to be effective integration between legacy and cloud applications. Sify is uniquely positioned not just with the ability to meet Network SLAs but also with the ability to design, implement and manage hybrid deployments with legacy on-premise applications and the Cloud applications, via a common Cloud integration platform leveraging Oracle technologies.

Count on Sify for a successful migration to Oracle Cloud

Sify complements Oracle’s public Cloud portfolio with its expansive service portfolio encompassing data center services, migration and assessment services, telecom, and managed services. This offers customers a holistic value proposition for their Cloud journey which no other service provider can offer.

With the Oracle Cloud data center co-located with us, Sify is in a unique position to offer customers the advantages of Oracle public Cloud and co-location of partial workloads from the same premises which are interconnected through a high speed, low latency, and highly secure ‘FastConnect’ link. This allows customers to go for their own hybrid data centers without having to worry about latency issues.

With our cloud@core strategy, Hybrid IT-ready Data Centers and Network Services offering <1ms latency for Hybrid deployments, we are the only Cloud Transformation partner that can help you leverage the true potential of hybrid Cloud. Our Hyperscale Cloud and Data Center Services, low latency, high bandwidth, and secure connections to Oracle Cloud ensure better performance at predictable costs. Moreover, our team of competent Cloud experts and Oracle-certified solution architects are willing to offer prescriptive guidance at every stage of your Cloud adoption and transformation, to help you achieve your Oracle migration goals.

Rationalize, Scale, and Manage your network effortlessly.

In today’s technologically advanced era, enterprises across realms have complex ICT environments – virtual and geographically spread. The advent of Cloud and rise of multiple solution providers globally have encouraged organizations to pick and choose the perfect mix to host their applications, servers, and data across a diverse landscape of Data Centers and multiple clouds. This has benefitted organizations worldwide, in terms of ease of operations, higher level of flexibility and better speed to market. However, at the same time, one must acknowledge that management of such a highly complex ICT environment has become a major challenge for many organizations in the digital era.

Organizations must understand that all the components of their diverse IT and network infrastructure – consisting of applications, servers, machines, network peripheral equipment, sensors, or even distinct Cloud environments – are not discrete or isolated units anymore, but a part of a larger organization context, making them extremely valuable for business progression and business continuity. All these components must be unified and viewed in a consolidated way for better performance and security. That’s where, Network Consolidation becomes imperative!

Organizations that have complex ICT environments face distinct challenges that hamper their overall performance and efficiency. Some of the most common challenges in this changing and ever evolving Network and IT environment are:

• Multiple service providers management: Modern enterprises leverage a perfect blend of best-of-breed network solutions from distinct service providers as this ensures advantages of redundancy, resiliency, choice of network media, and connectivity to remote locations. However, managing all the distinct service providers is quite a challenging task and has some inherent problems, such as lack of ownership and visibility, inconsistency in services, inability to leverage analytics, and governance related risks.
• Limited in-house network management capabilities: This is another major concern for organizations across industry verticals. If they opt for establishing an in-house network management setup, then it becomes a very cost-intensive decision to hire the skilled workforce, procure the technology, develop the competence, and achieve a high level of scalability. Furthermore, an in-house setup would need hefty and timely investments to keep pace with evolving technology landscape.
• The demand for constantly re-architecting network: Every enterprise network nowadays has a host of different applications, which has given rise to changed traffic patterns. These mission-critical applications demand uninterrupted collaboration and traffic exchange, which calls for a continuous re-architecting of network to connect data, applications, people, and varied components of the IT infrastructure.
• Shift of focus from Network uptime to Application performance: Traditionally, network has always been uptime-focused, however in current situation where applications are hosted in multiple of Data Centers, Public & Pvt Clouds, businesses are more concerned about how applications perform over the network as this directly impacts the end user experience. The changing demands of high-performance computing and fast cloud migrations have led to a change in paradigm for networks with their SLAs being evaluated on Application intent rather than Network intent. Therefore, new-age networks must capably meet the rising needs of all mission-critical applications that are running concurrently.
• Unification of underlay and overlay networks: To meet changing demands of businesses, networks have grown and evolved organically over different periods of time. This has resulted in complex architectures of underlay & overlay networks. With changing priorities of organizations and rise of application-focused networks, it is important to unify the underlay and overlay networks for optimal utilization, enhanced efficiency, improved user experience, and robust security.
• Connectivity across DC and Cloud landscape: With increased Cloud adoption, it is very important to maintain a perfect sync between data centers and Cloud. Therefore, they need an excellent Network Interconnection that can guarantee seamless connectivity across all the data centers, Cloud environments, international cable landing stations, third party telco infrastructure, etc. for deterministic connectivity and extensive reach.
• Integration of IT, OT, and People: Majority of organizations nowadays have geographically distributed offices, where employees and end users use multiple devices in different regions. It is important to allow them secure and fast access to applications in Cloud and data centers for better experience, collaboration, and organizational efficiency. At the same time, the same Network must ensure seamless connectivity of IT Infrastructure as well as OT assets like WiFi access points, IoT devices and sensors. Herein, network plays an important role in integration of all aspects of IT, OT, and people.

As discussed above, organizations with complex ICT environments face distinct challenges. This not only hampers efficiency and performance but also impacts end user experience, hence compelling organizations to revisit their network strategies. Enterprises want actionable information to be available to end users wherever they are. The rise in mobility and multitude of devices has paved way for direct access to corporate information, which highlights the need of secure and consolidated network which can be scaled rapidly on-demand. The CIOs need to have complete visibility of all network assets and take decisions on network performance and network behavior dynamically. This can be achieved only through network consolidation.

Consolidating your network under one trusted service provider will ensure you a centralized real-time visibility and control over your entire network. Network consolidation improves network performance management and makes network provisioning easier with lesser handoff points between providers, devices, and IT assets, at a reduced cost!

Network consolidation becomes a very complex task and it has a lot of parameters and moving parts to be looked into. Therefore, it is imperative to seek an expert guidance in this quest.

Sify can help you accomplish your Network Consolidation goals. Some of the key differentiators that make us the preferred network consolidation partner are:

• Hybrid Network Strategy – Use of Internet for Business Applications: The shift from data centers towards Cloud has resulted in more prevalent use of the Internet as a connectivity option, in addition to MPLS. Today, an SLA-defined Internet strategy is a more reliable and pervasive way to establish a robust connectivity throughout the widely spread ICT environment. Hence, modern day businesses need hybrid WAN strategy – use of internet for business applications along with MPLS. Sify is empowered with India’s largest MPLS Network covering 1,600 towns and cities across India with 3,100 Points of Presence. We provide consistent, secure, high-speed Internet connectivity in more than 130 countries together with 800+ local and global partners. With our robust MPLS and Internet services, we can help you consolidate your network for both primary and secondary connectivity needs.
• Cloud Ready Networks – Advantage Hyper-scale: As majority of modern enterprises opt for hybrid or multi-cloud model, enterprises need ubiquitous connectivity to data centers and public Clouds. Sify’s robust interconnection network helps enterprises connect and integrate with Hyper-scalers seamlessly to simplify Cloud connectivity and reduce provisioning time. Our interconnection network improves cross-cloud application interaction, performance, and scalability, which ultimately paves way for enhanced quality of experience. Sify enjoys a great stature in the India Cloud market as we are the preferred partner of all major Hyper-scalers such as AWS, Azure, Oracle, and GCP including their respective Cloud connect services. With our Cloud connect, DC Interconnects and carrier neutral network with multiple internet exchanges, we deliver a well-architected and cost-effective Cloud-ready network for a secure, low latency and deterministic connectivity.
• Strategic Move from Wireless to Wireline Connectivity Media – More relevant than ever: Today, convergence of wireless and wireline is happening at a lightening pace. Till now, fiber penetration was restricted to backbone networks in the network value chain; however, as we move to the hyper-connected era, networks fiberization becomes important for the increasing cloud adoption. Therefore, Sify has invested in dense fiberization in backhaul and last mile connectivity. Sify’s state of the art 100G ethernet infrastructure – Metro-XConnect integrates multiple Clouds, our Cloud-adjacent data centers, third party data centers, and transit points in the Network. Our investments into Metro-XConnect can help customers consolidate their networks and leverage multiple benefits of Cloud, such as low latency, high reliability, improved scalability, and uninterrupted operations.
• Strong Managed Services and Network Operations Outsourcing capabilities: Empowered with strong Managed Services and Network Operations Outsourcing capabilities, Sify can help you integrate, consolidate, and transform your networks across varied ICT environments for visibility, control, and easy orchestration. Our integrated skillsets, processes, toolsets as well as the state-of-the-art Network Operations Center (NOC) and Security Operations Centre (SOC) can enable you to monitor and manage network and security devices comprehensively. Our NOC services are SLA-driven and outcome-based, which ensures predictable performance. Sify also helps in assessing & consolidating WAN networks; redesigning & reengineering as-is WAN network; and managing Network and Network assets 24X7. Additionally, you can outsource your Network operations and management, including management of all service providers and vendors.
• Integrated capabilities across Core, Management Layer, and Edge : In the digital age, enterprises need to focus on faster compute and Edge connectivity. To accomplish this goal, it is important to transform and rearchitect your network – at the core, the management & visibility layer, and the Edge. With our DC and Cloud Interconnects, combined with expertise to deploy technologies like SDWAN and NFV, we hold expertise in network transformation at the core. At the Network Management layer, Sify can manage your WAN, provide 24×7 monitoring of links, undertake network management under a unified SLA across multiple service providers. At the Edge, Sify ensures end to end implementation and access configuration of Wi-Fi, IoT devices and integration with the Enterprise Network.

 

AWS cost optimization is an ongoing process. AWS cloud resource utilization needs to be continually monitored to determine when the resources are being under-utilized or not being utilized or idling to reduce the costs by deleting/terminating/freeing the unused resources.

It’s also helpful to consider the Saving Plan or Reserved Instances to ensure full utilization as per the anticipated constant level of consumption.

While the fundamental process of cost optimization on AWS remains the same – monitor AWS costs and usage, there are a number of tactical ways to analyze the operational data to find the opportunities for savings and take actions to realize the savings.

Pillars of Cloud Cost Optimization

1. Right-Sizing

Identify the resources with low-utilization and reduce the cost by stopping or rightsizing.

• Use AWS Cost Explorer Resource Optimization report to get the list of idle or low utilized resources. Reduce the costs by either stopping or downsizing the instances.
• Use AWS Compute Optimizer for downsizing recommendations within or across instance families, upsizing recommendations to remove performance bottlenecks and recommendations for EC2 instances that are parts of an Auto Scaling group.
• Identify Amazon RDS, Amazon Redshift instances with low utilization and reduce the cost by stopping (RDS) and pausing Redshift outside of business hours or non-processing timeframe.
• Use Amazon EC2 Spot Instances to reduce EC2 costs where possible – SPOT instance mgmt. can be effectively managed by 3rd part tool, such as Spotinst, for automatic termination and new instance availability without impacting end users.
• Review and modify EC2 Auto-Scaling Groups configuration to ensure scaling is happening on the right thresholds instead of setting it at the lower thresholds.
• Try using Elastic Kubernetes Services (EKS) and Elastic Compute services (ECS – EC2 Model) worker nodes under auto-scaling using SPOT instances (instead of on-demand/RI) for reducing the cost.
• Consider using Elastic Compute services (ECS -Fargate) to start the tasks with lower configuration (e.g. 0.5 vCPUs & 1GB RAM) per task and use auto-scaling instead of higher configuration per task.
• Multi-AZs configuration for DEV, test, UAT, or DR environment may not be necessary or useful for RDS, Redis, NAT, or other PAAS services (unless business really requires achieving any objective); therefore, it’s important to design wisely.

2. Instance Family Refresh

Each instance/series/family offers different varieties of computing, memory, and storage parameters. Instance types within their set groupings are often retired as a unit when the hardware required to keep them running is replaced by newer technology.

• Upgrade instances to the latest generation offering lower costs.
• For PAAS services, such as RDS, Redis, ElasticSearch, MSK, use instance type wisely, particularly for pre-PROD or DR and appropriate AZs to scale the instances. It may not require more than 2 AZs even while considering business SLAs. Keep an eye on the latest family of infrastructure and refresh to take the benefits of lower costing.
• Use low costing instance type for Development, QA, or the environment (e.g. T3a) wherein performance benchmarking certainly is not required for the business SLA.
• Always start with low and upgrade the right size to a suitable family considering the business use cases and traffic patterns.

3. Compute Savings Plans to reduce EC2, Fargate and Lambda costs

Compute Savings (Compute Savings Plans and EC2 Instance Savings Plans) Plans automatically apply to EC2 instance usage regardless of instance family, size, AZ, region, OS or tenancy, and apply to Fargate and Lambda usage. Use one year, no upfront Compute Savings Plans to get a discount of up to 54% compared to On-Demand pricing. Once you sign up for Savings Plans, your computer usage is automatically charged at the discounted Savings Plans prices. Any usage beyond your commitment will be charged at regular On-Demand rates. Please follow Point Nos. 1 and 2 before adopting Saving PLAN. Saving Plan has a lot of advantages over AWS Reserved Instances with one condition – “Usage commitment/Hour”

Reference link – https://aws.amazon.com/blogs/aws-cost-management/getting-started-with-aws-savings-plans/

4. Reserved Instances (RIs)

Even though the Saving plan supersedes the RI option, some of the PAAS services are outside of the Saving Plan program as of today in April 2020.

• Purchase reserved nodes for RDS, Redshift, Elasticsearch and ElastiCache Services to reduce the cost.
• Many instance type discounts are larger and at the top end may be over 60% in the case of some 3 year all upfront terms. Identify the instances & take call saving plan vs RI intelligently.
• You can get shorter term RIs on the marketplace.

5. Scheduling on/off times

It’s worth scheduling on/off for non-production instances used for development, staging, testing, and QA as it can save up to 65% of running these instances if you apply an “on” schedule of 8.00 a.m. to 8.00 p.m. from Monday to Friday. However, it’s possible to save a lot more — especially if development teams work in irregular patterns or irregular hours. Plan more aggressive schedules by analyzing utilization metrics to determine when the instances are most frequently used or apply an always-stopped schedule which can be interrupted when access to the instances is required.

6. Orphaned resources

Identifying waste takes time and accurate reporting. It is a great reason to invest time and energy in developing a proper tagging strategy to make this an easy process.

• For unutilized AWS EC2s, use Cost Explorer Compute Optimizer report or extract CW stats and take actions.
• Terminate VMs that were spun up for training or testing.
• Delete unattached EBS volumes – Check Volumes page and available EBS volumes status.
• Delete obsolete snapshots and lifecycle as required to meet the business demand.
• For idle load balancers, try to use ALB with path/content-based routing.
• Release unattached Elastic IP addresses.

7. Storage

• EBS volumes that have very low activity (less than 1 IOPS per day) over a period of 15 days indicate that they are probably not in use. Identify these volumes using the Trusted Advisor Underutilized Amazon EBS Volumes Check. To reduce costs, first, snapshot the volume (in case you need it later), and then delete these volumes.
• Use S3 Analytics to analyze storage access patterns on the object data set for 30 days or longer. It makes recommendations on where you can leverage S3 Infrequently Accessed (S3 IA) to reduce costs. You can automate the process of moving these objects into lower-cost storage tier using Life Cycle Policies. Alternately, you can also use S3 Intelligent-Tiering, which automatically analyzes and moves your objects to the appropriate storage tier.
• Move infrequently accessed data to lower-cost tiers.
• Use S3 One Zone if business SLA allows you to do so.

8. Containerization

Containers can help to get the most out of available computer hardware and software resources which are Lightweight, have start-up time in milliseconds, and require less memory space. Containers help to achieve the scale of the economy by reducing the IT management resources, snapshot size, spinning up applications, reduced & simplified security updates, etc. Containers are a better choice when your biggest priority is maximizing the number of applications running on a minimal number of servers.

9. Local Caching

If data transfer from EC2 to the public internet shows up as a significant cost, consider using Amazon CloudFront. Any image, video, or static web content can be cached at AWS edge locations worldwide, using the Amazon CloudFront Content Delivery Network (CDN). CloudFront eliminates the need to over-provision capacity in order to serve potential spikes in traffic. Use CloudFront when your userbase is geographically distributed.

10. VPC endpoints

Heavy data lifting to S3 from private subnets (e.g. static contents, backup, videos, etc.) require NAT gateway. Use VPC endpoint to reduce the NAT gateway data out the cost and move data securely over the AWS backbone. This will reduce the NAT Gateway data out the cost that occurs to S3.

11. Regional and AZs Cost

AWS AZ and regional cost can be eliminated wisely through right solutioning.

With-in availability zone (AZ)

• Data transfer costs for transferring data in the same region and within the same availability zone are zero, however with one requirement that you must be using a private IP address.
• If you are using a public or Elastic IPv4 address or IPv6 address, data transfer out from EC2 will be charged at 0.01/GB. In the same way, data transfer into AWS EC2 will be charged at 0.01/GB if you are using a public or Elastic IPv4 address or IPv6 address.

Across availability zones in the same region

• Data transfer between AWS services located in the same region but in different availability zones is considered as regional data transfer and is charged at $ 0.01/GB (outgoing data transfer).
• In the same way, data transfer into EC2 from an AWS service in another availability zone is charged at $ 0.01/GB.

This is only true for some AWS services like Amazon EC2, Amazon RDS, Amazon Redshift or Amazon ElastiCache instances, etc.

• Architect your systems so that there is minimal data transfer across AWS regions or availability zones.
• Architect your AWS environment such that data transfer is restricted to within an availability zone or within a region at the most.
• Try to use private IP addresses instead of public or elastic IP addresses wherever possible.

Conclusion

Fine-tuning your cloud infrastructure is critical to make sure that your overall bill stays in the limit. Proven cloud cost optimization strategies outlined in this blog will help you cut down your cloud costs by eliminating unused resources and/or choosing the right resource plan. Sify has been meticulously managing the cost optimization projects of large enterprise customers for many years to reduce their AWS bills substantially. Sify, with its highly dedicated, well experienced and AWS certified SMEs, can help you realize your business objectives by fine-tuning your environment.

If you are concerned about your ever-increasing AWS cost, the above-given strategies will help you optimize the cost. You can also choose Sify – the experienced AWS Managed Service provider – for yielding the best results.

 

Emerging technologies such as IoT, Artificial Intelligence, and Machine Learning have not only changed the business dynamics but have been generating an exponential volume of data, posing difficulties in its management. Processing this exponential burst of data with varying workloads in a timely and cost-efficient manner requires modern systems like High Performance Computing (HPC). Despite being in its early adoption stage, HPC is quite promising, as it has the capability to solve emerging business problems. Many business use cases have been developed, capturing the attention of the enterprises across the globe. Some of these use-cases where HPC has helped enterprises solve their problems are discussed here.

Fraud detection in the financial industry

Financial frauds have rocked the world with their inventiveness and scale. Some high-profile frauds such as Ponzi schemes, misleading investment schemes, identity fraud, phishing, card fraud, counterfeiting, skimming, fake prizes, and inheritance scams have duped many unsuspecting investors or users. The Global Economic Crime and Fraud Survey conducted by PwC in 2018 reveals that 49% of the organizations faced an economic fraud in the previous two years. While 52% of these threats were internally born, 40% were from external sources.

With a centralized system of fraud detection, information can be gathered from all the available sources. This system can help detect and prevent cyber-attacks, improve data privacy, enhance data protection, and support the digital forensic investigation. Given the humongous volumes of data, the system that is installed must have the capability to detect anomalies and intrusion attempts. Legacy data centers, despite their high capacities, are incapable of handling such large volumes of data. In this scenario, High Performance Computing can prove to be a useful aid in modern fraud detection and risk modeling, thereby helping financial organizations detect attacks on their systems as they occur, preventing financial fraud. PayPal implemented an HPC environment, and within a year of its adoption, it was able to save $710 million that would have been stolen by cyber thieves.

Personalized healthcare and clinical research

Modern advancements in healthcare have helped in the development of many pharmaceutical drugs and in identifying treatment options for a variety of ailments. The adoption of information technology by physicians, surgeons, and other medical professionals has helped them deliver accurate and timely medical treatment to their patients. Advanced medical simulations are often employed to ascertain the positive and negative effects of medicines on a patient profile to determine the most effective treatment option. These simulations demand high computing power as a number of factors need to be taken into account. This is another area where High Performance Computing can come to the aid of medical professionals with its significant computational power. Medical professionals can drill down into patient information at the genomic level, using millions of data points to help diagnose and identify personalized treatments for the patient.

Large hospitals have been using HPC for research. TGen and NMTRC have together developed an HPC system to obtain insights in much faster time into cancer and pharmaceutical research. By using these systems, new drugs can also be discovered, and life-saving medical treatments can be identified and personalized.

Smart energy grids

Smart energy grids are deployed to reduce energy consumption and offer more flexibility and reliability than traditional grids. These grids help in supplying energy to millions of households by integrating multiple energy sources. In order to supply, optimize, and maintain energy efficiency for multiple cities and neighborhoods, a huge volume of data is captured from millions of devices, including individual meters and consumption devices. These devices can generate exabytes of data, for which enormous computing power is needed for processing. Traditional servers cannot fulfill this need. However, with HPC, a huge volume of data can be processed and analyzed with efficiency in real-time.

Manufacturing Excellence

Large manufacturing enterprises have already begun to make use of the power of HPC, which is used for IoT and Big Data analysis. Based on the analysis results, real-time adjustments are possible in processes and tools to ensure an improved design of a product, increased competitiveness, and faster lead times.

High Performance Computing is capable of running large simulations, rapid prototyping, redesigns, and demonstrations. An example could be a manufacturing unit that would improve its manufacturing flow with insights from the processing of 25,000 data points from customer intelligence. The first-ever autonomous shipping project of the world is making use of HPC computing, which involves processing a large amount of data collected from sensors. The data includes details of weather conditions, wave points, tidal data, and conditions of various systems installed.

High Performance Computing offers significant benefits over traditional computing for manufacturing enterprises. It can help an automobile unit vehicle maintenance. A wholesaler could optimize the supply chain as well as stock levels. HPC is also used in R&D. The innovative design of the 787 Dreamliner Aircraft by Boeing is a result of HPC-based modeling and simulation that helped the company conduct live tests on the aircraft to test the prototype.

HPC has become indispensable for enterprises to derive competitive advantage in the fast-growing business world and scaling technologies.

Sify Data Center and cloud services help you to centralize your IT infrastructure, operations, storage & management and enjoy tremendous scale and a lower cost of ownership. Our consultative solution approach helps you define a business technology strategy where delivery of services supports clear business outcomes.

Data Centers have become nerve centers of the organizations in the modern digital world. Their performance and efficiency are crucial levers of organizational success. The challenge for technology heads has been to arrive at Data Center solutions that are cost-effective, offering value without compromising on essential features. Utilizing available space for Data Center scaling is a cost-saving method often employed by organizations. This measure can only yield short-term value. Creating a cost-effective Data Center with optimum performance and decent ROI, in the long run, requires elaborate planning. Companies can plan a cost-effective Data Center transformation using the following measures.

Disaggregated architecture

We often visualize a Data Center like the one with racks of servers, blinking and humming away. What happens when one of the server modules get compromised or damaged? Will you replace the entire server? It will be wiser if you replace or upgrade only the equipment in question as this approach has lower downtime and is more cost-effective. A disaggregated architecture like High-Performance Compute (HPC) offers this benefit. An intelligent HPC architecture can transform your Data Center and give you significant savings in the long term.

The plan for a Data Center transformation or development relies on some key functions like design computing and power management. Making effective use of these functions would result in cost saving. Electronic design automation can shorten the design cycle for the Data Center architecture, which reduces the time to market. Further, with disaggregated architecture offered by HPC, physical operations become more cost-effective than workloads running on the cloud. A comparative cost saving upwards of 60% can be achieved.

Traditional Data Centers used power architectures with limitations and thus, incurred a major cost when scaling up, but modern Data Centers use low power consuming servers and efficient cooling systems and thus, have higher Power Usage Effectiveness and less cost. A desegregated architecture can further bring down the operating costs of a Data Center.

Micro-Data Centers

Scalability, speed and reliability. The modern business world relies on these elements for its operation, and they can be optimized by deploying the right technology. If the costs are not managed well, it can put a strain on the organization. The question is – Is the desired ROI achievable? The use of Micro-Data Centers that are located closer to the points of consumption can reduce latency and cost both for cloud and a remote Data Center. The micro-architecture can reduce up to 42% of the capital expenditure when compared to traditional Data Centers.

Data Centers designed with technologies like virtualization, compaction, and hyperconvergence result in significant cost savings. Virtualization allows a company to use the computing power across workloads in a Data Center, saving power; compaction consolidates multiple racks into one, saving space. On top of it, hyperconvergence integrates high performance compute, high performance storage, and networking, thereby increasing the speed of deployment.

Power provisioning

Around 3% of the total electricity in the world is utilized by global Data Centers, and that amounts to roughly 416 terawatts. By 2025, Data Centers would end up consuming a fifth of the global power. No wonder, power is a major concern when it comes to Data Centers, and power-saving measures bring cost benefits for an organization. Power provisioning can be used to optimize Data Center power consumption by understanding how power is consumed by equipment, servers, and workloads, and optimizing it.

Power supplies have a sweet spot, the level at which high operational efficiencies can be achieved. However, most Data Centers operate below this level. The reason why companies could be restrictive in using enough power is the cautious measure of average and peak power consumption given on the nameplate of a power supply equipment. However, it is important to understand that if the Data Center is operating below this sweet spot, it could be wasting energy, and this wasted energy would further increase the need for cooling. Using the right power supplies, amortizing power across servers, and running Data Centers at optimum loads can bring efficiency and cost-savings.

A cost-effective Data Center transformation can be achieved through effective architecture, fast deployment, and optimized power consumption. Organizations can beneficially employ these measures when scaling up their Data Centers for achieving long-term gains.

Sify Data Center and cloud services help you to centralize your IT infrastructure, operations, storage & management and enjoy tremendous scale and a lower cost of ownership. Our consultative solution approach helps you define a business technology strategy where delivery of services supports clear business outcomes.

Multiple business applications of an enterprise are usually housed on-premise and on-cloud infrastructure. In a multi-cloud environment, multiple cloud providers build the IT portfolio, which would mean that the company must manage multiple service level agreements. Technically, this environment provides the enterprise with a workload migration capability between different cloud services on demand, depending upon which is beneficial.

However, if the integration of IT systems on a multi-cloud environment are not tightly coupled, it may lead to various issues.  In a hybrid environment, clouds can be interconnected, but in a multi-cloud environment, alternative measures must be taken as there are multiple service providers. Integration and orchestration are the standard measures employed to manage workloads in a multi-cloud environment.

A multi-cloud is not a hybrid cloud

A hybrid cloud would have different models for deployments in public and private clouds, but a multi-cloud environment would have multiple service providers who may be delivering services using the same type of deployment.  At an advanced level, the tapestry of a multi-cloud system can contain categories of private cloud, hosted private, hyperscale cloud, and hybrid clouds with each having multiple vendors.

Multi-cloud management is challenging as different clouds may not be interconnected as in a hybrid cloud.  This adds complexity to the management of resources, capacities, services, compliances, and finances. For governing resources in a multi-cloud, automation tools are often used.  On top of it, orchestration can help streamline the functions of these tools.  However, using multiple tools for managing different domains can still be complicated.  Deploying automation technologies that can work across environments and help manage assets throughout may be beneficial.  This can reduce complexity, enhance performance and strengthen the security of the multi-cloud system.

For the system to be agile and to maximize the value of a multi-cloud system, the workloads on the cloud should be properly mapped to specific types of clouds.  This makes orchestration and management of workloads across multiple clouds easier in an integrated system.  With this strategy in place, the user need not jump between different provisions while orchestrating between different workloads.  Moreover, integration enables a combined visibility of all resources such that their costs, logs, metrices, and performance indicators, can be accessed through single interface in real time.

Managing a multi-cloud system

A standard way to approach multi-cloud management would be to create a blueprint for integration and management, in which strategies can be designed for ITSM integration, database monitoring, business process analysis, patch management, and life cycle management.  An example of a strategy would be the standardization of resource consumption.  A company can standardize the consumption patterns of resources based on the type of cloud and the service provider.  For instance, one service provider may be used only for data analytics while others would serve the storage necessities, and a third would be used to work for Artificial intelligence applications.

To be able to manage this multi-cloud environment efficiently, a company needs to have an integrated system of resources.  Integration makes it possible to monitor all the available resources, which is essential for the effective functioning of a multi-cloud system.  Monitoring enables visibility into cloud networks, specific applications, and even potential threats faced by components of the cloud infrastructure.

Companies cannot take a traditional approach to manage the multi-cloud systems because unlike the earlier environments; resources are not homogenous in a multi-cloud environment.  A managed multi-cloud in silos with individual tools can be both difficult and costly.  Agility and flexibility of a multi-cloud system cannot be ensured if the complexity persists.  Integration can help address such issues by making a multi-cloud system appear like a single system.

For effective management, the integration should be carried out along six dimensions: organization, business, processes, governance, information, and tools.  After integration, an IT administrator can use a single interface to access all resources and take required actions for managing them.

Specific applications can be bundled within containers for the ease of maintenance.  This packaging also increases the portability of applications as they separate the applications from their runtime environments.  The apps within a container can easily be moved between cloud services while retaining their functionality.  Based on individual criteria such as cost, availability, and storage space, the organization can freely select a cloud service provider.  Containers are particularly ideal for a microservices environment in which software is built in such a way that the applications are broken down into very small components that are easily portable.

A managed multi-cloud service-based environment can always provide agility and a higher level of flexibility when compared to traditional approaches.  Orchestration and integration are the keys to successful management of a multi-cloud environment.  Orchestration can streamline automation, reduce complexities, enhance performance, and improve security.  With integration comes visibility while containerization enables portability and easy maintenance.

Sify’s many enterprise-class cloud services deliver massive scale and geographic reach with minimum investment. We help design the right solution to fit your needs and budget, with ready-to-use compute, storage and network resources to host your applications on a public, private or hybrid multi-tenant cloud infrastructure.

Data is growing at an exponential rate in the modern borderless world. Over 2.5 Quintilian bytes of data is generated every day across the globe. India alone is set to produce 2.3 million petabytes of digital data by the year 2020, and it is growing at a rate that’s much faster than the world average. Many enterprises are also exploring online data backup in the cloud further fueling this data explosion.

This data explosion increases the demand for storage capacities that are served by Data Centers. In just two decades, Data Centers have scaled up from the size of a room to the size of a commercial tower giving way to accommodate this increased storage need. Besides storage, modern Data Centers are also sprucing up to handle more services. They are more connected than ever and can meet the needs of the contemporary business world.  New solutions have emerged around Data Center architecture that can bring competitive advantages to users through more optimized performance. Data Centers have now become critical components of a modern IT infrastructure.

In India, we see emerging businesses growing at a fast pace, with cloud computing technologies and cloud warehouses taking the lead to store enormous amounts of digital data. At the beginning of the 21st century, most organizations in India had captive Data Centers that were self-managed. With advances introduced in cloud technologies and specialized players adding more capabilities, the self-managed option was replaced by the outsourcing model. Increase in the users, economic growth of the country, and cost advantages of cloud-based Data Centers are some of the trends driving adoption of a cloud-based architecture.  Captive Data Centers are expensive to accommodate and challenging to scale. However, cloud-based Data Center architectures are more flexible.

Many new technologies, services, and facilities that were premium and rare earlier are now part of standard offerings in modern Data Centers. These services are reshaping the way businesses operate today.

Another trend to note is the emergence of Modular 4th generation Data Centers. These Data Centers comprise modular units that help in quickly scaling up the infrastructure. In addition to the components in the racks being modular, the building itself could be modular. For instance, some Data Centers are built in shipping containers. Scaling up means adding more shipping containers with Data Center units.

Resolving the Challenges

Many challenges of the past have now been resolved with architectural advances in the Data Center space. For instance, Pod architecture for SaaS assigns a set of machines to a specific job or customer for all of its required tasks. To create redundancies for power and cooling in a Data Center, a lot of assembling needs to be done which can incur a cost. You may also need to construct additional racks. However, POD comes with frames that are free standing and compatible with most equipment so it can be used for all needs including power, cooling, and cabling. So, your need for construction within the Data Center facility is minimized. It can simplify infrastructure scaling to support your digital growth. It is a standardized deployment that can automate user provisions. It allows you to use shared storage, firewall, and load balancing while customizing individual PODs as per your business needs. When scaling up users, you would not need to perk up your whole infrastructure but only add or remove specific resources user-by-user, which can help reduce overheads.

While Data Centers serve as an ideal place to use your critical applications, operating them has been a big challenge in the past. A Data Center is affected by many environmental factors that add inevitable complexities. A Data Center operator needs to take care of the cooling needs of Data Centers as well as maintain correct levels of air and humidity in the storage spaces. These challenges make it worthwhile for companies to try cloud-based shared storage space managed by third-party experts who could be better equipped to counter these problems. In modern warehouses, Computer Room Air Conditioning (CRAC) device is used instead of traditional air conditioning, which can monitor as well as maintain humidity, air flow, and temperature in a Data Center.

The future is smart!

The future of the Data Center is smart: modern Data Centers are now offering converged infrastructure, and the trend is further moving towards hyper-convergence. This has brought many advantages for Data Center operations and has also solved problems that paralyzed companies earlier. The risk of hardware failure, for instance, plagues companies with the risk of losing data and they struggle to rebuild their infrastructure. Siloed approaches to managing servers was another challenge that made Data Center operations expensive and complicated. With converged infrastructures, the process of managing a Data Center gets organized; with a single interface used for infrastructure management, your company turns more proactive in streamlining your operational processes and in keeping your data on the cloud safe.

While consolidation of operations through convergence makes management easier, most servers are still siloed, and that is where hyper-convergence plays its magic. Hyper-converged Data Centers are software-defined Data Centers that are also called smart Data Centers. They use virtualization and converge all operational layers including computing, networking, and storage into a single box. With hyper-convergence, everything is now on the same server which brings improved efficiencies, reduced costs, and increased control over Data Center components.

Colocation: A trend to watch

Rethink IT, replace captive servers with cloud services. You would now need much less space for storing the same amount of data than you needed in a captive Data Center. Welcome to the concept of managed colocation!

Colocation services (or Colo) are delivered by Data Center solution providers to enhance user experience. A hybrid cloud drives them and provides specialized services for their users. A collocation is a place where customers have better control over their private infrastructure, and with increased proximity to the public cloud, they can also be closer to their customers.

A colocation service relies on the principles of abstraction, software-based provisioning, automation, unified management, and microservices. Colo facilities are highly flexible as it can reap the advantages of both private and public cloud with a hybrid infrastructure. While private cloud gives enhanced security and control, the public cloud makes it easy to transport data over encrypted connections and gives you additional storage space.

Modern colocation services are now shifting to Data Center-as-a-Service (DCaaS) which is a much more flexible deployment than Software as a Service, Platform as a Service, and Infrastructure as a Service models. A hybrid DCaaS colocation architecture has a public IaaS platform, on hosted or on-premise private cloud and a Wide Area Network (WAN) to connect the two. A major advantage of DCaaS is the change in the cost equation. DCaaS providers have high economies of scale that allow them to offer you volume-based discounts taking your costs down. The DCaaS hybrid cloud architecture not only provides hybrid storage flexibility and cost advantage but also other benefits like increased redundancies, improved agility, and maximum security.

A hybrid cloud combines the resources available to you on the private cloud and the public cloud and gives you the flexibility to seamlessly move your data between them. With changes in your cost structures and business needs, you can flip your resources between the two clouds anytime. If you’ve reached the designed capacity of your current private cloud, you can always switch to a Public cloud for further expansion. For instance, Cloud bursting can give you on-demand storage over the public cloud so that you can shift the increased burden on your private cloud to the public in peak business seasons.

Data Center technologies are still emerging, and new architectures like hybrid cloud and hyper-convergence are taking shape. In the future, more companies would realize the benefits of these architectural modifications and will be able to enjoy far higher capacities and advanced Data Center management capabilities.

Sify offers state of the art Data Centers to ensure the highest levels of availability, security, and connectivity for your IT infra. Our Data Centers are strategically located in different seismic zones across India, with highly redundant power and cooling systems that meet and even exceed the industry’s highest standards.

Modern Data Centers are synonymous with massive high-speed computational capabilities, data storage at scale, automation, virtualization, high-end security, and cloud computing capacities. They hold massive amounts of data and provide sophisticated computing capacities. Earlier, a simple network of racks with storage units and a set of management tools to individually manage them were enough. The architecture was simple to understand, and only local resources were consumed in its operation.

However, as organizations became increasingly internet dependent, the volumes of the data exploded with more of it added by the social media and the sensing devices that grew manifold. Remote access to this data through the Web emerged as the trend. The local tools that were used earlier in traditional Data Center were fragmented and were inefficient to handle not just the volumes but also complexities that in effect needed a large infrastructure. There were challenges of scaling up when companies expanded, and performance dipped when peak loads were required to be handled. This led to the evolution of hyperscaling as a solution.

Hyperscale is based on the concept of distributed systems and on-demand provisions of the IT resources. Unlike the traditional Data Center, a hyperscale Data Center calls in a large number of servers working together at high speeds. This ability gives the Data Center a capacity to scale both horizontally and vertically. Horizontal scaling involves on-demand provisioning of more machines from the network when scaling is required. Vertical scaling is about adding power to existing machines to increase their computing capacities. Typically hyperscale Data Centers have lower load times and higher uptimes, even in the demanding situations like the need for high-volume data processing.

Today, there are more than 400 hyperscale Data Centers operating in the world, with the United States alone having 44% of the global Data Center sites. By 2020, the hyperscaled Data Center count is expected to reach 500 as predicted by Synergy Research Group. Other leading countries with hyperscaled Data Center footprints are Australia, Brazil, Canada, Germany, India and Singapore.

Hyperscale Data Center Can Do More at Less Time and Lower Cost

A traditional Data Center typically has a SAN (Storage Area Network) provided mostly by a single vendor. The machines within the Data Center would be running on Windows or Linux, and multiple servers would be connected through commodity switches. Each server in the network would have its local management software installed in it and each equipment connected to them would have its own switch to activate the connection. In short, each component in a traditional Data Center would work in isolation.

In contrast, a hyperscale Data Center employs a clustered structure with multiple nodes housed in a single rack space. Hyperscaling uses storage capacities within the servers by creating a shared pool of resources, which eliminates the need for installation of a SAN. The hyperconvergence also makes it easier to upgrade the systems and provide support through a single vendor solution for the whole infrastructure. Instead of having to manage individual arrays and management interfaces, hyperscaling means integration of all capacities, such as storage, management, networks and data, which are managed from a single interface.

Installing, managing and maintaining a large infrastructure consisting of huge Data Centers would have been impossible for emerging companies or startups that have limited capital and other resources. However, with hyperconvergence, even microenterprises and SMEs, as well as early stage startups can now enjoy access to a large pool of resources that are cost-effective and provide high scalability in addition to flexibility. With hyperconvergence, these companies can use Data Center services in at a much lesser cost with the additional benefit of scalability on demand.

A hyperscale Data Center would typically have more than 5000 servers that are linked through a high-speed fiber optics network. A company can start small with only a few servers configured for use and then, later at any point of time, automatically provision additional storage from any of the servers in the network as their business scales up. An estimate of the demand for additional infrastructure is made based on how the workloads are increasing, and a proactive step can be taken to scale up capacities to meet the increasing need for resources. Unlike traditional Data Centers that work in isolation, hyperscaled infrastructures depend on the idea of making all servers work in tandem, creating a unified system of storage and computing.

When implementing a hyperscale infrastructure, the supplier could play a significant role through the delivery of next-gen technologies that need high R&D investments. According to a McKinsey report, the top five companies using hyperconverged infrastructure have over $50 billion of capital invested in 2017 and these investments are growing at the rate of 20% annually.

Leveraging hyperscaled Data Centers, businesses can achieve superior performance and deliver more at a lower cost and a fraction of time than before. This provides businesses with the flexibility of scaling up on demand and an opportunity to continue operations without any interruptions.

Sify offers state of the art Data Centers to ensure the highest levels of availability, security, and connectivity for your IT infra. Our Data Centers are strategically located in different seismic zones across India, with highly redundant power and cooling systems that meet and even exceed the industry’s highest standards.

Imagine how an orchestra combines a multitude of instruments to create a symphony. In the same way, a hybrid cloud orchestrates, skillfully combining public and private cloud, to create a seamless cloud infrastructure.  As multiple applications on a public–private hybrid infrastructure could add to complexities, with the help of orchestration, a centralized structure can be created to allow management of multiple applications using a single interface. Differences in bandwidths, workloads, and access controls can all be managed by this orchestration software.

Integration of different technologies in a hybrid infrastructure determines how effective the orchestration is. For seamless integration, the compatibility between different systems and applications must be ensured, so that orchestration of workloads between public and private clouds is seamless, providing the needed high-performance compute. In the absence of orchestration, enterprises using a hybrid cloud would be forced to manage the public and private clouds in silos, which can put pressure on their resources and demand additional overheads. In addition, orchestration provides the benefit of streamlining resources for coordination, making it easier to manage multiple workloads.

Orchestration on the Private Cloud

A private cloud may not be cheap, but it brings its advantages. It gives greater control over assets and provides enhanced cloud security, resiliency, and flexibility to the system. With private cloud orchestration, automation of the infrastructure could be managed, by establishing workflows that work without human intervention. While private cloud automation would initiate processes automatically, orchestration results in a unified structure of workflows. In this arrangement, resources can be provisioned as needed to optimize the workloads on a private cloud. Thus, an organization can realize savings in engineering time, and IT costs.

What does orchestration involve?

Orchestration enables a coordinated deployment of automation services on the cloud. Cloud orchestration happens at three levels: resource, workload, and service. At the resource level, IT resources are allocated, and at workload level, they are shared. At the service level, services are deployed so that shared resources are optimally utilized. While individual automation only takes care of a single task, orchestration automates end-to-end processes. It is similar to creating a process flow that automates the sequence of automation. The workflows created in the process enable technologies to manage themselves. There are many orchestration tools available in the market that can be used by organizations based on their individual requirements. Some popular tools are Chef, Puppet, Heat, Juju and Docker. Chef is used at OS level while Puppet is more popular at middleware level. Heat is an orchestration method developed from OpenStack, and it can orchestrate everything in OpenStack. Juju is used at the service level while Docker serves both as a tool for orchestration and technology for virtualization.

Workload placement considerations

In a hybrid cloud, both public and private applications generate different workloads. To manage these workloads, and handle their seamless switch between public and private cloud infrastructure, an appropriate cloud strategy is needed. Distributing the workload between different IT assets is a   business decision in which regulatory compliance requirements, trade-offs, business risks, cost, and growth priorities are taken into consideration. For instance, certain countries like China may have certain federal restrictions on the use of the internet for which a private WAN can be deployed. The cost could be a concern for an organization looking to provide last-mile connectivity if private cloud is deployed, but with public infrastructure used for addressing service needs of remote locations, cost savings can be realized. A private or hybrid cloud may require establishing an in-house team for IT support while public cloud can work without any, and with limited, cloud expertise in-house.

Technical parameters such as data volume, performance, security, and integration are considered when orchestrating workloads between different cloud deployments. Based on the level of importance each of these attributes carries, workloads can be shifted between the public and private cloud. Public clouds could be deployed for workloads that require a higher level of security but a lower level of integration and performance, such as CRM and information systems. When a continuous demand for a higher level of integration arises, an organization may have to add a private cloud to the IT infrastructure. Workloads like file printing, networking, and systems management may work with either nature of the cloud. However, if data volumes grow, the public cloud would not suffice, and the organization should orchestrate to a private cloud. Applications like enterprise resource planning, data marts, and Big Data analytics make use of high volumes of data that need a private cloud to manage.

A true hybrid cloud allows for easy migration of workloads between public and private clouds. It is always wise to develop a hybrid cloud strategy depending upon workloads, as portability of workloads becomes possible and traditional applications can be bridged with modern applications across the cloud infrastructure. When cloud deployments are planned based on the changing needs of the workloads using orchestration, the enterprise can make their IT infrastructure more optimized, flexible, and adaptive.

Sify’s many enterprise-class cloud services deliver massive scale and geographic reach with minimum investment. We help design the right solution to fit your needs and budget, with ready-to-use compute, storage and network resources to host your applications on a public, private or hybrid multi-tenant cloud infrastructure.

For years, Data Centers formed the backbone of IT infrastructure, in which primarily hardware-driven convergence was deployed to assemble several parts of the IT function. However, in this type of infrastructure, the compute, storage, and networking components are discrete and thus difficult to manage. Hyperconvergence is a system that creates a pool of IT resources, which can be shared over a network by different users.

Going a step further, the components are brought together, which appear as a single entity to the user through the creation of clusters of nodes. In a hyperconverged environment, the components cannot be separated. The software-defined elements are implemented virtually, with seamless integration into the hypervisor environment. ComputerWorld called hyperconvergence “Data Center in a box” as early as 2012 when the concept was only catching on. Today, hyperconvergence is a $5 billion industry and is growing fast.

Why is Hyperconvergence So Popular?

Development of infrastructure earlier entailed a huge spend as many infrastructure units like SANs and blade servers were required. Hyperconvergence brought a pre-integrated infrastructure bundled in a single box, which is managed with a unified layer. Significant cost savings are realized as a hyperconverged infrastructure could be built over low-cost hardware.

Pure software-based architectures and hybrid options make a hyperconverged infrastructure model highly flexible. Using this flexibility, organizations are required to deploy resources only on an as-needed basis, and investment is needed only for the required storage. In the era of unpredictable data growth, this flexibility acts as a reward.

The integrated architecture of a hyperconverged infrastructure makes it robust, in not just handling the business database processing workloads, but also the mission-critical applications. High-performance computation, speed, flexibility, agility, and cost saving are a few benefits of hyperconverged infrastructure. These capabilities have been attractive enough for organizations to move to hyperconverged infrastructure in the past few years.

Need for Hyperconvergence in Business

Today, mission-critical applications have to deal with demanding workloads that fluctuate based on real-time interactions between users and machines. The magnitude of workloads, unimaginable in the past, are now getting into the forefront like Big Data, IoT, Machine Learning, and Artificial Intelligence. These workloads provide business advantages such as operational efficiencies and competitive edge by delivering actionable insights, but an infrastructure that has inherent scalability is required to handle these workloads. Hyperconvergence exactly fits this requirement. WAN latency, which was dreaded earlier with Tier 1 workloads, is no more a concern, thanks to hyperconvergence.

Modern businesses host their solutions on the cloud. Whether it is a private cloud, public cloud or a hybrid cloud, HCI (Hyperconverged Infrastructure) can streamline the resources with finesse. Regulatory compliance and other types of compliance become easier with HCI. The hybrid infrastructures consisting of cloud and on-premise infrastructure provides greater flexibility, data privacy, and data protection when coupled with HCI.

How does HCI make a difference to a business? If the cost of analysis is consuming an unreasonable part of the organization’s business cost, then it becomes difficult to sustain. Hyperconvergence addresses this problem by offering high scalability, on-the-go adoption flexibility, and resource optimization to ultimately reduce overheads and deliver value.

An example of how HCI can deliver scalability and flexibility to a business could be a VDI rollout. Before any company would do a VDI rollout on a large scale, the first step would be to test the system performance with a minimum viable product. However, when this platform is configured for scaling to meet the growing business demands, one single error in prediction of performance could prove to be costly, compromising the whole roll-out. Hyperconvergence ensures the reliability of this process as a provision exists for adding nodes to clusters any time so that scaling for performance doesn’t even count as an issue.

Data Center consolidation is another important area of HCI application that brings savings for a business through resource optimization. Hyperconvergence not only brings down the amount of hardware by eliminating SAN from a network but also reduces the variety of components used through data compression and deduplication. Cutting down both on software and hardware components cuts down the cost of physical infrastructure and reduces complexity.

How HCI Can Shape Businesses

Several applications and benefits have emerged with the wide adoption of HCI and here are some that are shaping modern businesses today.

Digital Transformation with HCI

Digital transformation is seeing wider adoption as companies are keen to embrace evolving technologies and build sustainable competitive advantages. This is because HCI gives them a single flexible platform to consolidate resources and virtualize workloads. The HCI environment can serve as the backbone for the organization’s digital transformation strategy. It is robustly designed for scalability, and so as the organization’s workloads increase, additional components can be provisioned to meet the spurt in demand. As compared to  traditional 3-tier architecture, this flexibility would deliver savings in the TCO (Total Cost of Ownership).

Resource Optimization with HCI

Many businesses still use manual processes for provisioning service processes, severely constraining IT efficiencies. This also demands a significant CAPEX, in addition to causing increased workload. HCI can save both cost and time that goes into provisioning by providing a low-cost infrastructure and several automation features. Therefore the organization is required to spend much less time in provisioning, managing, operating, and maintaining IT assets.

Moreover, the organization’s network, storage, and compute can all be scaled up on demand in a pay-per-use model, propelling optimization. This means that every added component gives more value at a lower cost. Organization’s assets also get utilized most efficiently.

With HCI come many benefits that are acting as triggers for its wider adoption and growth. More businesses keen on enhancing their enterprise capabilities would adopt HCI for their needs, and the future looks promising for this technology.

Sify’s many enterprise-class cloud services deliver massive scale and geographic reach with minimum investment. We help design the right solution to fit your needs and budget, with ready-to-use compute, storage and network resources to host your applications on a public, private or hybrid multi-tenant cloud infrastructure.