The goal of data center optimisation is to increase the efficiency of an organization’s data center staff operations. This involves reconfiguring or changing data centers to cut resources without reducing functionality. Existing data centres performance is an important consideration.
With greater expectations placed on data centers due to a demand for future growth in data usage and requests for more compute-intensive applications, higher processor power, chip densities, and GPUs are becoming increasingly prevalent. In many cases, this necessitates a redesign of the design and an examination of materials and methods for powering and cooling such systems. For example, in larger data centers, where more computing power is concentrated on fewer servers, wattage ratings of 10kW – 14kW per rack are becoming common. In addition, the requirements for CPU chips are driving power usage, which necessitates the efficient cooling of such shelves.
With traditional excellent airflow, there are several layers to consider. Chilling the air flow lowers ambient temperatures, and careful rack placement ensures that they are aligned in hot or cold aisles. The most efficient upper-end fan configurations include variable speed settings, eliminating standby losses and allowing energy to flow more streamlined manner, which helps to dissipate heat away from sensitive locations. Fans can also operate differently according to the load with greater automation, delivering precise cooling architecture where needed.
Utilities can use performance metrics such as PUE (Power Usage Effectiveness) to help them navigate the road to greater efficiency. As cooling accounts for the second-largest share of electrical power after the IT equipment itself, the goal of conserving energy consumption is admirable and should be encouraged.
Liquid cooling is one of the most recent trends in power-intensive computing, and it’s becoming more popular. Liquid cooling has been utilized in edge computing systems and co-location data centers, with businesses like EcoDataCenter announcing intentions to capitalize on the technology.
All efforts to improve a data center’s efficiency and performance are founded on this. For example, the Data Centre Infrastructure Management (DCIM) system provides valuable insight into performance and availability, no matter what server hardware or assets are used. In addition, the Internet of Things (IoT), Artificial Intelligence (AI), data analytics, and machine learning, among other things, have helped to provide more insight into how a data center functions under various circumstances. As a result, server racks, power distribution, UPSs, cooling systems, and IT are increasingly designed with these capabilities built-in.
DCIM is crucial for optimizing performance since it gives decision-makers a bird’s eye view of the component health status and highlights possible concerns so that specific maintenance or servicing may be carried out promptly and effectively. Furthermore, it allows for continuous improvements, maintaining efficiency and potentially lowering operational costs.
We’ve discovered the following five essential phases to upgrading the existing facilities smarter, faster, and better while working with clients.
The project team must include employees from both inside and outside the company and experienced partners with knowledge in several critical areas. Architecture, planning, and permitting are among the fields that require an understanding of construction law. Other topics include finance and economics, architecture, planning, consenting, and mechanical and electrical existing system engineered and utility connections, including electric power, district heating, potable water supply, and wastewater treatment. An integrated, multi-disciplinary team will develop a comprehensive design that eliminates built-in inefficiencies due to interface margins between various components and sub-systems.
There is no fixed procedure for modernizing upgrading an existing data centre that everyone can use. With so many choices available, it’s crucial that the project team thoroughly evaluate their alternatives in the planning stage to ensure they take the most effective, value-led approach for their building. Integrated safety-in-design, computational fluid dynamics simulation tools, electromagnetic transient simulations, thermodynamic models, and Monte Carlo reliability, availability, and maintainability simulations – are accessible to help with this procedure. Reliability and resilience are quantified; safety risks and consumption energy savings potential are calculated; a variety of significant impacts on the neighborhood.
Other factors must also be considered while conducting financial and economic analysis throughout the planning and development stages to support the formation of a strong business case for modernization. For example, strategic variables, such as brand-building, local community acceptance, future-proofing, positioning in developing power and energy markets, and the so-called “triple bottom line” framework that incorporates social and ecological impacts and economic effects must all be considered alongside power costs saving and return on investment.
All interfaces and potential conflicts must be considered when designing each component of the existing data center. The most sophisticated tools, such as BIM, finite-element analysis, and numerical integration simulation solutions, can examine fluid dynamics, thermodynamics, electrical transient performance, electromagnetic compatibility, audible noise, and arc flash risk.
When the project is completed, it’s easy to overlook the importance of verifying that it works in practice. It’s often necessary to calculate energy efficiency savings, environmental effects, and neighborhood impacts of shared utilities for regulatory approvals. The process may be streamlined, and enhanced operational procedures can be developed, which will result in further savings across the whole project.
What actions can you take right now to make sure your office’s existing infrastructure is up to date? A well-oiled network may help businesses produce and implement the best judgments efficiently, so what steps can you take to guarantee that your company’s infrastructure is current? Here are four things you can do right away to help your firm become more efficient:
Audit your network
It’s critical first to identify where there are problems in your network before beginning any major optimization projects or even upgrading. Are your computers the real problem, or are your staff in need of training to take full advantage of your services? If it’s one or both of those things, you’ll need to act to correct them immediately. On the other hand, if you find that your network is the problem, you’ll need to identify exactly what parts need to fix. You may solve this by isolating each component one at a time and troubleshooting and testing it.
Re-train your employees on best practices.
It’s one thing to have cutting-edge equipment, and it’s another for your staff to utilize it effectively without making errors that might cause problems for them or other employees. Don’t make the mistake of assuming that your team is already computer-literate. Instead, regularly go through a checklist with them and teach them how to use it.
Keep Your Network Cabling Infrastructure Organized
The tips above are particularly crucial when your network cabling infrastructure is in place, as cords and cables can become tangles over time. The more chaotic your cable network is, the longer it will take to make required modifications, relocations, and other installations.
Color coding cable network groups is a good idea, and you should label each network correctly. For example, if cables running through walls and between several rooms aren’t appropriately labeled, tracking them might be challenging.
Use High-Quality Equipment
Without the most up-to-date and cutting-edge new technologies, you won’t be able to get the most outstanding design. Request that your IT cabling specialist install copper and fiber panels with a high port density. You may assess the effectiveness of your strategy by determining the number of ports per unit of network professional rack space. Wall-mounted panels for cable management and termination aid in organizing racks by providing extra space for network electronics and fiber panels for new equipment. It allows you to optimize floor space and improves network management by using rack space more efficiently.
A data center is a building where companies store their valuable information, processes, and applications for security. The hardware in the data center includes all of the IT and non-IT components that make up the complete data center infrastructure. The phrase “data center hardware” refers to both functional and non-functional devices and equipment required for a data center’s operations.
All infrastructure components — networking, storage devices, CPU, and security — are virtualized and delivered to provide services in an SDDC (software-defined data center). This architecture abstracts the hardware, with management software intelligence taking care of deployment, operation, provisioning, and configuration. Those activities are handled by computer software intelligence.