Are you struggling with inconsistent water quality in your facility?
Inconsistent purity levels can ruin months of expensive research in a single day. Furthermore, many facilities struggle with bulky, decentralised units that take up too much valuable bench space.
If you want to achieve peak operational efficiency, you need a high-performance centralised laboratory water system.
In this comprehensive guide, you will learn why modern facilities are moving away from benchtop units and toward professional laboratory water purification system plant room designs.
Specifically, we will show you how to optimise your infrastructure to guarantee reliability while slashing your long-term operating costs.
We will also dive deep into the technical specifications, regulatory requirements, and financial ROI of upgrading your system to a modular, non-proprietary solution.
Decentralised vs. Centralised Water Solutions

For many years, the standard approach in laboratory design was to place small, individual purification units at every workstation.
However, as modern research scales, this approach has become increasingly inefficient.
Managing dozens of small units is a logistical nightmare. For example, each unit requires its own set of filters, its own service schedule, and its own power supply. Consequently, laboratory managers spend more time on maintenance than on actual science.
By moving toward a centralised system, you consolidate all your purification technology into a single plant room.
This shift allows for professional-grade monitoring and high-volume output that individual benchtop units simply cannot match. If you are currently using smaller setups, you might want to compare them against our standalone laboratory water purification systems to see where centralisation makes the most sense.
Benefits of Centralised Systems

When you evaluate the total cost of ownership, centralised systems win every time. There are four primary reasons why modern facilities are making the switch.
Reclaiming Laboratory Real Estate
Bench space is the most expensive real estate in a scientific facility. Decentralised units take up feet of counter space that could be used for revenue-generating equipment.
By relocating the purification hardware to a dedicated plant room, you clear the clutter.
Streamlined Maintenance
Instead of tracking twenty different filter replacement dates, your team only monitors one system.
Therefore, the risk of human error is significantly reduced. Specifically, centralised systems often feature automated alerts that notify you long before a filter reaches its limit.
Lower Consumable Costs
Buying filters in bulk for a large system is far more cost-effective than purchasing proprietary cartridges for small units.
In addition, large-scale systems are designed for higher efficiency. This means they produce less wastewater per gallon of purified water.
Guaranteed Consistency
In a decentralised setup, one lab might have a brand-new filter while the lab next door has a six-month-old one.
This creates variables in your water quality. In contrast, a centralised loop ensures that every tap in the building delivers the exact same purity level.
Understanding Plant Room Architecture

A well-designed plant room is the heart of a high-functioning laboratory building. It is not just about the purification unit itself.
It is about the entire distribution ecosystem.
Feed Water Preparation
Before the water even reaches the high-end membranes, it must be pre-treated. This typically involves carbon filtration to remove chlorine and softening to prevent scale buildup.
If your raw water quality is poor, this stage is critical for protecting your expensive RO membranes.
The Purification Engine
This is where the heavy lifting happens. Systems like the Purific Analytica series use a combination of Reverse Osmosis (RO) and Deionisation (DI) to strip away contaminants.
Moreover, these systems are modular, meaning you can add capacity as your facility grows.
Distribution and Storage
Once the water is purified, it must be stored and moved. We use high-grade DT300 Distribution Tanks to hold the water.
However, the water is never static. It is constantly recirculated through a UV-sterilised loop to prevent the growth of biofilm.
Non-Proprietary Components
One of the biggest frustrations in the industry is the service lock-in.
Many manufacturers design their systems so that only their expensive, branded filters will fit. This is a common tactic to ensure long-term revenue for the manufacturer at the expense of the user.
Purific operates differently…
We believe that you should have the freedom to maintain your own equipment. Consequently, our systems utilise standard, non-proprietary components.
If a pump fails, you can buy a replacement from a local industrial supplier. If you need new filters, you are not forced to wait for a proprietary shipment from overseas.
This approach ensures that your downtime stays at an absolute minimum while your operating costs remain predictable.
The Analytica Series
When it comes to high-volume needs, the Analytica series is our flagship solution. These systems are engineered for 24/7 operation in demanding environments like hospitals and pharmaceutical plants.
Analytica 100
This system is designed for laboratories that require up to 100 liters per hour of high-purity water. It is compact enough for smaller plant rooms but powerful enough to feed multiple analysers. Furthermore, its digital control system allows for remote monitoring.
Analytica 100 Pro
The Pro version is for facilities where downtime is not an option. It features a dual-pump design. If one pump requires maintenance, the second pump takes over immediately.
As a result, your laboratory never loses its water supply. This level of redundancy is essential for clinical environments where patient samples must be processed without delay.
Maintaining Water Quality

The biggest challenge in a centralised system is not making the water; it is keeping it pure as it travels through the building. Specifically, bacteria love to grow in stagnant water.
Continuous Recirculation
The water is always moving. This prevents the formation of biofilm on the internal surfaces of the pipes.
If water sits still for even a few hours, microbial colonies can begin to form. Consequently, our loops run 24 hours a day.
UV Sterilisation
As the water returns to the storage tank, it passes through a UV light. This light kills any microorganisms that may have entered the system at the point of use. Specifically, we use 254nm lamps for germicidal control and 185nm lamps if TOC reduction is required.
Material Selection
We use high-purity PVDF or stainless steel piping. These materials have ultra-smooth interior walls that give bacteria nowhere to hide.
Moreover, they are resistant to the leaching of ions that can occur with cheaper, lower-grade plastics.
Financial ROI of Centralisation
While the initial capital expenditure for a centralised system is higher than a single benchtop unit, the ROI is typically realised within 18 to 24 months.
Consider the labor costs of your highly paid scientists. If they spend 30 minutes a week dealing with water system errors or filter changes, you are losing thousands of dollars in productivity every year.
When you multiply that across a whole department, the costs are staggering.
In addition, centralised systems reduce electricity consumption. Rather than running twenty small motors, you run one large, high-efficiency motor. Therefore, your utility bills will see a noticeable decrease over time.
Compliance and Standards

Operating a laboratory requires strict adherence to international standards. Failure to comply can result in failed audits and retracted research papers.
Our systems are designed to meet or exceed the standards set by the Clinical and Laboratory Standards Institute (CLSI). We provide full validation documentation, including IQ/OQ (Installation Qualification and Operational Qualification).
Moreover, Purific systems help you comply with ASTM D1193 requirements. This is the international standard for water used in analytical laboratory testing.
By centralising your system, you make the audit process much simpler because you only have one point of compliance to manage.
Planning Your Installation
If you are considering an upgrade, the planning phase is the most important part of the journey. Specifically, you need to calculate your peak demand.
Demand Calculation
How much water do you need at 10:00 AM on a Tuesday?
This is usually the peak time for laboratory activity. Your system must be sized for peak flow, not average flow.
Quality Mapping
Does every lab need the highest grade of water?
Usually, the answer is no.
By mapping out where you need different grades of water, we can design a tiered system that saves you money on purification where it is not needed.
Space Allocation
We help you design the layout of your plant room. This includes ensuring there is enough swing space for technicians to service the equipment comfortably.
In addition, we consider drainage and ventilation requirements to prevent heat buildup.
Future-Proofing
A laboratory is a living organism. It will change. Therefore, we design our loops with extra T-junctions.
This allows you to tap into the water line in the future without having to shut down the entire system or cut into existing pipes.
Smart Water Management
We are seeing a massive shift toward smart water systems. Specifically, IoT integration allows laboratory managers to monitor water quality from their smartphones.
Imagine receiving a text message if the resistivity of your water drops below 15 MΩ-cm.
This allows you to fix the problem before it affects your experiments.
Purific is at the forefront of this digital revolution, ensuring that our plant room solutions are compatible with modern building management systems (BMS).
Furthermore, sustainability is becoming a major focus. Newer systems are designed to recover reject water from the RO process.
This water can be used for non-critical applications like cooling towers or greywater systems. Consequently, your lab becomes not just more efficient, but more environmentally friendly.
Myths About Centralised Systems
Many people are hesitant to centralise because of common misconceptions.
Let us address those directly.
Single Point of Failure
People often fear that if the central system goes down, the whole building stops. However, with a system like the Analytica 100 Pro, you have built-in redundancy.
Furthermore, the storage tanks usually hold enough water to keep the lab running for several hours even if a primary component fails.
Retrofitting Costs
Another myth is that retrofitting an old building is too difficult. While it is easier in a new build, we have successfully retrofitted dozens of older facilities.
Specifically, we use flexible, high-purity tubing that can be fished through existing walls and ceilings with minimal disruption to daily operations.
Critical System Components
To understand how a central system maintains pharmaceutical-grade purity across an entire facility, we must examine the individual stages of the purification chain.
Each component serves as a critical fail-safe against contamination.
Multi-Media Pre-filters
These are the first line of defense. They remove large particles like silt and sand. Specifically, we use depth filters with 5-micron ratings to capture sediment.
If these are not maintained, the rest of the system will fail prematurely.
Activated Carbon Blocks
Carbon is essential for removing chlorine and chloramines. Chlorine is a powerful oxidant that will destroy Reverse Osmosis membranes in a matter of hours. Therefore, monitoring chlorine levels is a critical daily task for any plant room operator.
Furthermore, carbon filters help remove organic compounds that can interfere with sensitive assays.
Reverse Osmosis Membranes
This is where 95% to 99% of contaminants are removed. RO technology uses high pressure to force water through a semi-permeable membrane.
It is highly effective at removing dissolved solids, heavy metals, and bacteria. In addition, our RO membranes are designed for high-flux efficiency, meaning they produce more water with less energy.
Deionisation Cartridges
For high-purity water, RO is not enough.
We use ion-exchange resins to strip away the remaining charged ions.
This is what brings the water up to the industry-standard 18.2 MΩ-cm resistivity required for sensitive analytical work. Because these resins are modular, they can be replaced quickly without shutting down the main pump.
Industry Applications
Different industries have vastly different requirements for their water. A centralised system must be flexible enough to accommodate these varied needs across a large campus.
Pharmaceutical Manufacturing
In pharma, water is often a primary ingredient. Therefore, it must meet strict pharmacopeia standards.
Our systems provide the validation data necessary to prove compliance with these strict regulations, ensuring that every batch of product is safe. Moreover, the central system approach makes it easier to track water quality logs for regulatory audits.
Clinical Diagnostics
Clinical analysers require a constant flow of water to rinse probes and dilute reagents. If the water quality fluctuates, the analyser results will be inaccurate. Consequently, patient care could be compromised if the water system is not reliable.
Specifically, the Analytica 100 Pro ensures that analysers receive a steady stream of water even during peak laboratory hours.
Biotechnology and Genomics
In biotech, even the smallest amount of DNA or RNA contamination can ruin a study. Therefore, water must be free of nucleases like RNase and DNase.
Our central systems can be equipped with ultrafiltration modules that specifically target these biological contaminants. As a result, your sensitive genomic workflows remain protected.
Forensic Science
Forensic labs require extreme purity to avoid cross-contamination of evidence. Specifically, water used in PCR amplification must be absolutely pure.
A centralised system ensures that every forensic workstation has access to the same high-quality water, reducing the risk of false positives in critical legal cases.
Maintenance Protocols
A centralised system is an investment that requires care. However, because it is centralised, that care is much easier to manage than dozens of benchtop units.
Daily Inspections
Technicians should check the pressure gauges and resistivity meters daily. These quick checks can identify a failing pump or a saturated filter before it becomes a crisis. Specifically, recording these values in a logbook is essential for audit compliance.
Moreover, modern systems can automate this logging process through cloud-based software.
Monthly Sanitisation
Even with UV lights and recirculation, the loop should be chemically sanitised periodically. This involves flushing the system with a biocidal agent to ensure that no bacteria have taken hold in dead legs of the plumbing.
Therefore, we design our loops with minimal dead legs to begin with. In addition, we recommend testing for heterotrophic plate counts (HPC) after every sanitisation cycle.
Annual Validation
For regulated industries, an annual validation is required. This involves testing the water at every point of use and comparing the results to the original design specifications.
Purific provides the necessary testing kits and documentation to make this process seamless. Furthermore, we offer calibration services for all onboard sensors to ensure their accuracy remains within tolerance.
Environmental Sustainability
Modern labs are under pressure to reduce their environmental footprint. Centralised water systems play a major role in achieving these sustainability goals.
Water Recovery
Traditional RO systems waste a significant amount of water. However, Purific systems can be configured with recovery loops that feed the reject water back into the pre-treatment stage.
This can reduce total water consumption by up to 50% in high-volume facilities. Consequently, your lab can hit its environmental targets while lowering utility costs.
Energy Efficiency
By using Variable Frequency Drives (VFDs) on our pumps, we ensure that the system only uses as much power as it needs. If only one lab is using water, the pump automatically slows down.
Therefore, energy waste is minimised, and the lifespan of the pump is extended. In fact, many of our clients see an energy reduction of 30% after switching to a VFD-controlled central system.
Choosing the Right Partner

Not all water system providers are created equal. When you choose Purific, you are choosing a partner that values your long-term independence and operational freedom.
Most companies want to lock you into a 10-year service contract. They make their money on the back end by overcharging for branded filters. In contrast, Purific provides you with the training and the non-proprietary parts to manage your own system.
We believe that transparency is the key to a long-term relationship. Specifically, we provide clear pricing and open-source technical manuals. This empowers your facility team to be self-sufficient and reduces the total cost of ownership by thousands of dollars.
The Future of Water Systems
As we look toward the next decade, laboratory water systems will become even more integrated into the digital lab ecosystem.
Predictive Analytics
Using AI, future systems will be able to predict exactly when a membrane will fail based on flow patterns and feed water quality.
This will move maintenance from a reactive model to a predictive one. Consequently, unplanned downtime will become a thing of the past. Moreover, these systems will be able to optimise their own energy usage based on predicted demand cycles.
Modular Expansion
As labs move toward plug and play designs, water systems will follow. We are already designing systems that can be expanded in hours rather than days.
This flexibility allows labs to pivot their research focus quickly without expensive infrastructure overhauls. In addition, modular systems allow for easier upgrades as new filtration technologies become available.
Final Thoughts
Upgrading to a central water system is a strategic move that pays dividends for years. It reduces administrative overhead, ensures scientific accuracy, and gives you total control over your facility’s most critical resource.
If you want a system that provides high performance without the restrictive service contracts of traditional brands, Purific is the answer. Specifically, our focus on non-proprietary parts and modular design ensures that your lab is ready for whatever the future of science holds.
Are you ready to optimise your laboratory? By choosing a centralised approach, you are not just buying a piece of equipment. You are investing in the long-term reliability and scalability of your entire research operation.