Reducing Fluid Control and Automation Complexity in Pharmaceutical Process Development

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Designing and building pharmaceutical processes and skids requires close collaboration between mechanical, electrical and instrumentation, and automation engineering teams. Yet when system design, component specification and vendor selection are fragmented across multiple suppliers, integration challenges can emerge that affect performance, validation and project timelines.

By aligning fluid control, automation and measurement technologies through compatible hardware and software platforms, pharmaceutical manufacturers and OEMs can reduce development risk, simplify validation and accelerate time to market.

Damien Moran, Industry Account Manager for Pharmaceutical & Biotechnology, explains how adopting a more integrated approach can help streamline pharmaceutical process development.

Managing complexity in pharmaceutical process design

Designing and constructing new pharmaceutical production processes is a highly complex undertaking. Whether developing a standalone process skid, a biopharmaceutical manufacturing system or a complete production line, engineers must balance process performance, hygiene compliance, reliability and scalability.

Precise control of fluids is fundamental to achieving consistent product quality and maintaining regulatory compliance. At the same time, systems must be designed to support efficient production, accommodate future expansion and generate accurate process data for validation and traceability purposes.

For original equipment manufacturers (OEMs) and pharmaceutical producers, success depends on effective collaboration between multiple engineering disciplines from the earliest stages of development.

A typical pharmaceutical process project involves several specialist teams. Mechanical engineers are responsible for pipework, vessels and valve selection. Electrical and instrumentation engineers manage valve actuation, wiring and instrumentation integration. Automation engineers develop the control architecture and implement software strategies to manage and optimise process performance.

Each discipline brings valuable expertise to the project, but ensuring all teams work together effectively is often one of the greatest challenges in pharmaceutical process development.

Overcoming project coordination challenges

Although mechanical, electrical and automation teams often share the same overall objective, they frequently work to different priorities and project timelines.

This makes coordination essential, particularly during the early design phase when key decisions have the greatest long-term impact.

Vendor selection is one of the most critical considerations at this stage. Choosing technologies that are compatible across hardware, software, communications protocols and support services can significantly influence the success of a project throughout its lifecycle.

As design progresses, individual teams typically specify components from approved suppliers to meet their particular requirements. While process valves, flow meters and control systems may each satisfy their individual specifications, incompatibilities can arise when these technologies are combined.

Differences in response times, communication interfaces and control methodologies can introduce subtle variations that reduce process precision and repeatability. While these discrepancies may appear minor at component level, they can have a significant impact on overall process performance.

For pharmaceutical manufacturers, where consistency and repeatability are critical, ensuring compatibility across fluid control hardware and automation architecture is essential.

Reliability, productivity and operational performance

Achieving the required process quality is only one part of a successful pharmaceutical manufacturing system. Productivity depends on maintaining throughput whilst ensuring reliability and minimising downtime.

Compatibility challenges between components supplied by multiple vendors can increase maintenance complexity over time. When issues arise, diagnosing faults often requires collaboration between several suppliers, each responsible for a different part of the system.

This can lengthen troubleshooting times and delay corrective action.

Downtime remains one of the most significant risks in pharmaceutical manufacturing, where production interruptions can result in lost output, delayed product release and increased operating costs.

A fragmented system architecture can also complicate service support, requiring multiple technical teams to coordinate their efforts before a fault can be resolved.

Reducing this complexity through greater system integration can improve operational reliability and simplify ongoing maintenance activities.

Supporting validation and regulatory compliance

Regulatory compliance remains one of the most important considerations in pharmaceutical process design.

Manufacturers must demonstrate that systems consistently operate within defined parameters whilst maintaining hygienic operation and generating complete process records. This requires accurate measurement, reliable data collection and comprehensive validation documentation.

Whilst individual components may meet regulatory requirements independently, integrating equipment from multiple vendors can make validation of the complete system more challenging.

Differences in software platforms, communications protocols and measurement technologies can create additional complexity during qualification and validation procedures.

Data integrity is another important consideration. The independent selection of sensors, controllers and software platforms can make it more difficult to establish seamless data management processes, increasing the effort required to maintain compliance and demonstrate traceability.

By adopting a more integrated approach to fluid control and automation, pharmaceutical manufacturers can reduce validation complexity and create a more streamlined route to compliance.

The benefits of a single project partner

One way to address these challenges is by consolidating responsibility for mechanical, electrical and instrumentation, and automation disciplines under a single project partner.

Working with a supplier that possesses expertise across fluid control, process automation and measurement technologies can significantly reduce project risk whilst optimising overall system performance.

In practice, this means partnering with an organisation capable of supporting the entire process lifecycle, from initial design through to implementation and ongoing support.

Bürkert's Pharma Project Management (Pharma PM) team provides a central pool of specialist expertise that can be deployed to address specific project challenges.

The Pharma PM team works directly alongside the customer's engineering team, providing support across all major design disciplines. A dedicated local project manager is assigned to coordinate activities and act as a central point of contact throughout the project.

In many respects, this project manager becomes a temporary extension of the customer's own engineering team.

This integrated approach combines project management support with practical engineering expertise, helping customers develop documentation, step files, engineering drawings, 3D models, simulations and control valve sizing calculations.

By providing support across multiple disciplines, the Pharma PM team helps improve coordination whilst reducing the risk of compatibility issues emerging later in the project.

Building flexibility into pharmaceutical manufacturing

Flexibility has become an increasingly important requirement within pharmaceutical and biotechnology manufacturing.

Modern facilities often need to support modular production concepts, adaptable recipes and scalable manufacturing capacity to respond quickly to changing market demands.

Designing flexibility into a process becomes significantly easier when valves, measurement devices and automation systems are developed as part of a coordinated strategy rather than specified independently.

A holistic approach to system design enables engineers to create solutions that can adapt to future requirements without compromising performance or compliance.

This flexibility is particularly valuable in biopharmaceutical manufacturing, where production processes frequently evolve and facilities must be capable of accommodating new products and changing production volumes.

Accelerating time to market

Speed remains a critical factor in pharmaceutical development.

Whether launching a new therapy, expanding manufacturing capacity or upgrading existing infrastructure, reducing project timelines can deliver significant commercial advantages.

Working with a single supplier that understands fluid control, instrumentation and automation can help accelerate project delivery by improving communication and reducing engineering complexity.

Design modifications can be implemented more efficiently, while compatibility challenges are less likely to emerge during later project phases.

By enhancing coordination across mechanical, electrical and instrumentation, and automation disciplines, the project partner approach can help shorten development schedules whilst reducing risk.

A more secure route to pharmaceutical process success

Pharmaceutical process and skid development is often as much about managing risk as it is about achieving performance objectives.

Manufacturers must balance process efficiency, compliance, validation, reliability and future flexibility whilst maintaining tight project schedules.

An integrated project partner approach provides a practical way to address these challenges by bringing together fluid control, measurement and automation expertise within a single coordinated framework.

By reducing complexity, improving compatibility and simplifying validation, pharmaceutical manufacturers can create more robust and efficient systems whilst accelerating their route to market.

For organisations seeking to optimise pharmaceutical process development whilst minimising project risk, the project partner model is often the most secure and effective path forward.

Find out more about Pharmaceutical Process Control Integration

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Burkert Fluid Control Systems

01285648720
sales.uk@burkert.com
http://www.burkert.com/
Fluid Control Centre 1 Bridge End Gloucestershire Cirencester GL7 1QY GB

About us

Bürkert is present in thirtyfive countries around the world. We also work with a large network of distributors and partners, which means we are as close as possible to our customers. This global presence ensures full service and support to all of our customers in every country around the world. Research is the lifeblood of our company.

At Bürkert, we are never satisfied with the status quo and are continually seeking new technologies and solutions for our customers. Every year, our people develop new and highly advanced products and solutions, ranging from integrated process measurement and control units to the most sophisticated systems used in pharmaceutical research. To be a market leader, we are also an R&D leader.

Therefore, our investment in research & development is one of the highest in our industry. In our research centres in Germany and France, 150 people are committed to working for a common future for our company and our customers. We are committed to offering our expertise wherever it is needed, anywhere in the world. This global presence ensures that our advances in fluid control technology are also global.

What we do in a nutshell

Manufacture of process equipment. One of the few manufacturers to provide solutions for the complete control loop.

Where we supply to

UK Ireland, Europe

Industries we supply to

Food and Beverage, Pharmaceutical Cosmetics Toiletries, Water and Wastewater

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