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Data centres have become some of the most demanding engineering environments in the built world. They operate around the clock, support high-value digital infrastructure and increasingly handle workloads that place significant demands on power, cooling and physical infrastructure. In such an environment, individual MEP systems cannot be designed in isolation. Electrical, mechanical, HSD, Fire protection, Secondary Fluid Network and Automation systems need to work together fro

When people talk about liquid cooling in data centres, the conversation usually goes straight to GPUs, cold plates and coolant distribution units. The piping that connects these systems rarely gets the same attention. That is easy to understand. Pipes are not the most visible part of a cooling system. Yet in a Secondary Fluid Network (SFN), they have a job that goes well beyond simply carrying coolant from one point to another. The choice of pipe material can affect cleanline

Liquid cooling changes what commissioning teams need to prove before a data centre can accept live IT load. It is no longer enough to demonstrate that the chilled water plant can maintain its design temperature. The entire cooling path has to work together, from the primary water circuit and pumps through the CDU and secondary loop to the rack-level cooling equipment. That makes the MEP commissioning process particularly important. Small problems with flow, pressure, controls

As liquid cooling becomes increasingly important in high-density data centres, the design of Secondary Fluid Networks (SFN) requires attention to details that may not always be visible during normal operation. One such consideration is the presence of dead legs within the piping network. A dead leg refers to a section of piping where fluid movement is limited or absent during normal system operation. These sections can occur around branch connections, isolation valves, future

As industries rethink the way they consume energy, manage cooling and build more resilient infrastructure, the conversation around thermal management is becoming increasingly important. One technology gaining attention for its efficiency, flexibility and potential to simplify complex cooling systems is the Secondary Fluid Network (SFN). Data centres are becoming the backbone of the digital economy. As cloud computing, AI, high-performance computing and digital services contin

The answer may depend on how intelligently we design the systems around the servers. Cooling efficiency cannot be measured only by how much heat a system can remove. Data centre operators also need to consider how much electricity and fresh water that cooling process requires. This makes water management an important part of the overall MEP strategy rather than a separate sustainability initiative. Smarter controls can make a difference here. Sensors and building management s

Artificial intelligence is changing the economics of data centres. As AI models become larger and workloads become more computationally intensive, data centres are consuming more power and demanding greater electrical density. For India, which is rapidly emerging as a major digital infrastructure market, this is creating a new challenge: how do you guarantee power when the grid cannot? The answer starts with a simple principle. A data centre cannot afford to wait for the grid

Data centres are entering a new phase of growth. Artificial intelligence, cloud computing, high-performance computing and digital services are driving demand for larger and more powerful facilities. At the same time, the industry is facing a difficult question: how can data centres continue to scale without placing increasing pressure on water resources? The answer will not come from a single technology. It will come from rethinking how data centres are designed, cooled, oper

India’s data centre landscape is entering a new phase. The country’s growing AI ambitions are driving demand for computing infrastructure at a scale that traditional data centre designs were not built to handle. The numbers underline the shift. According to a recent report, the Ministry of Power expects AI data centres to add 26.3 GW of electricity load by 2031-32. That estimate is almost twice the earlier projection of 13.56 GW. More computing power means more heat. That mak

The rapid growth of artificial intelligence, cloud computing and digital services has transformed the way data centres operate. As computing power increases, so does the demand for efficient cooling systems that can maintain optimal temperatures while reducing energy consumption. This shift has brought Secondary Fluid Networks (SFNs) into focus as an effective solution for modern data centre cooling. Data centres generate significant amounts of heat from high-density servers

Artificial intelligence is reshaping industries across the world. From healthcare and finance to manufacturing and public services, organisations are integrating AI into everyday operations. Behind every successful AI application lies a powerful digital infrastructure that can process, store and transfer enormous volumes of data. This is where modern data centres have become indispensable. Data centres are no longer simple storage facilities. They are the backbone of AI infra

Data centres have become the foundation of the digital economy. Every cloud application, AI model, financial transaction and connected device relies on infrastructure that can process and store growing volumes of data. As technology advances at a rapid pace, traditional data centre designs are evolving to meet new performance, efficiency and sustainability demands. The next decade will bring significant changes in how data centres are designed, managed and operated. Here are

Data centres are designed to deliver uninterrupted performance in an increasingly digital world. As businesses rely on them to store data, power applications and support critical operations, resilience has become just as important as capacity and efficiency. Among the many aspects of resilient infrastructure, fire safety remains one of the most critical. Effective fire protection begins long before a facility becomes operational. It is integrated into the design, electrical i

The way data centres are being built is changing at a remarkable pace. Artificial intelligence, cloud computing and high-performance computing have raised the bar for processing power, which has also increased the amount of heat generated inside server racks. Traditional air cooling systems that served the industry well for years are gradually reaching their practical limits. This shift has placed liquid cooling technologies and Secondary Fluid Networks (SFNs) at the center o

As artificial intelligence continues to reshape industries, the demand for high-performance data centre infrastructure is accelerating across India. To support this transformation, Comfonomics has inaugurated its new Secondary Fluid Network (SFN) manufacturing facility at MIDC Badlapur, marking a significant milestone in the country's evolving AI and digital infrastructure landscape. The launch event brought together the founders, Mr Achint Singh, Mr. Siril Thodeti and employ

Noise, vibration and harshness (NVH) testing and reverberation chambers have become a vital part of product development across the automotive, aerospace and manufacturing sectors. As expectations around performance, comfort and quality continue to rise, testing environments must deliver highly accurate and repeatable results. This is where NVH and reverberation chambers play a crucial role. These facilities are designed to evaluate sound transmission, vibration behaviour an

The automotive industry is often associated with speed, precision and large-scale production. What many people do not see is the complex network of engineering systems working silently behind every vehicle that rolls out of a manufacturing facility. From the first stage of component assembly to final vehicle dispatch, automotive manufacturing depends heavily on integrated infrastructure that supports consistency, efficiency and operational continuity. Modern automotive plants

Food and beverage plants are expected to deliver far more than production output today. They are expected to maintain strict hygiene standards, preserve product quality, operate with minimal downtime and respond quickly to changing market demand. At the same time, rising energy costs, temperature-sensitive operations and increasing compliance requirements are putting additional pressure on facilities. In this environment, MEP infrastructure has become a critical part of opera

Walk into any beverage facility and you will see how quickly quality can shift if temperature is not controlled. A juice batch left even briefly outside its required range can begin to ferment, altering taste before it reaches filling. In dairy processing, a delay in cooling after pasteurization can allow residual microbes to grow, reducing shelf life within hours. In carbonated drinks, improper temperature during mixing can affect CO₂ solubility, changing the final mouthfeel

Imagine a beverage production line stopping because of a contamination issue traced back to residue inside a filler or pipeline. Beyond production losses, the impact reaches product quality, brand reputation, and customer trust. In beverage manufacturing, hygiene is not simply a maintenance requirement - it is a critical part of ensuring safe, consistent, and reliable production every day. This is where automated Clean-in-Place (CIP) systems have become essential. By comb