In a sector where timing, precision, and resilience are paramount, the water and wastewater industry is undergoing a quiet transformation. At the heart of this shift lies a reimagined project delivery model—collaborative delivery—that is driving efficiency and innovation in the integration of valves and automation systems. Collaborative delivery in the water and wastewater sector, especially for valves and automation, involves all stakeholders (owner, designer, and contractor) working together from the start to achieve project goals. This approach can lead to faster timelines, reduced costs, and more innovative solutions. Selecting the appropriate valves and automation is, debatably, just as important as setting the overall budget, paving the way for avoiding costly mishaps throughout the job process such as schedule interruptions, process interference, liquidated damages, and many other things that can affect the overall design.
The purpose of this article is to explain the various critical roles that valves play in the operation of typical plant and pipeline processes. Pumps, associated valves, and automation need to have all the characteristics associated with each specific application.
The Case for Change: Why Traditional Models Fall Short
In traditional design-bid-build models, valve specification, procurement, and automation integration are often treated as isolated events. This separation frequently leads to mismatches in control logic, installation inefficiencies, and costly rework, particularly when dealing with complex assets like pressure-reducing valves, motor-operated actuators, or critical process control valves. In too many cases, you see controls contractors brought in after the valves have already been specified and ordered. By then, the chance to optimize integration or select smarter valve technologies has passed.
The Valve-Automation Synergy
At the heart of many water infrastructure projects lies a core challenge: how to balance mechanical reliability with digital intelligence.
Valves and automation are fundamental to regulating process conditions in any plant. Inefficiencies often arise when there is a lag between operator actions and the process equipment response, leading to systemic issues that propagate throughout the entire system. From plant startup to the optimization of flow efficiency, valves and automation control the critical elements that both safeguard operations and ensure the design functions as intended, which highlights the importance of selecting the right products early in the design process. The right valves and automation not only prevent potential failures but also enhance the overall efficiency, safety, and sustainability of our distribution networks.
Modern valve systems have evolved beyond passive flow control, with smart actuators, SCADA-compatible interfaces, and centralized network integration rapidly becoming the industry standard. This means the choice of valve is intimately tied to the automation design, an insight often lost in traditional workflows.
Matching control philosophies with the right mechanical components is where the magic happens. With collaborative delivery, we can align on the vision from day one rather than trying to retrofit it later.
Value Engineering
Early collaboration during the design phase is a cornerstone of effective value engineering. It encourages innovation, strengthens decision-making, and ensures that critical components are identified and prioritized for timely production. Ultimately, this helps ensure the system operates as designed, with performance, reliability, and integration fully aligned.
Establishing and validating the valve and automation schedule at the outset of the design timeline enables all stakeholders, including manufacturers, to align their planning, production, and procurement strategies. This level of coordination reduces uncertainty and creates a more predictable project path.
Taking a proactive approach helps reduce scheduling conflicts, supports smoother system integration, and lowers exposure to risks like delays, unexpected design costs, and potential liquidated damages. Effective strategies may involve exploring alternative solutions, conducting transient analysis, identifying critical valves, and defining network protocols early in the project.
One suggested approach is to clearly define application-specific and performance-based specifications to ensure the optimal product selection is aligned with the operational requirements and system performance criteria. It is important to verify that the valves and actuators are properly sized for system demands and fully compatible with the control architecture to ensure reliable communications and seamless operator interface.
Another key advantage is the ability to deliver a fully integrated assembly tailored to the specific application. It is essential to accurately define the appropriate valve and automation assembly prior to procurement to ensure proper actuator-to-valve compatibility and functional performance under the specified operating conditions. Engaging in early discussions with the engineer is critical to ensuring that each assembly is properly configured for its intended function. Assembly integration can be approached in various ways, each with increasing levels of complexity. Even seemingly simple configurations can generate unexpected complications, creating frustration and inefficiencies for owners and operators alike.
We need to accept the principle that sometimes the most crucial components of a system are those that operate quietly in the background.
Return on Investment
In the realm of water and wastewater infrastructure, there are often overlooked components that play crucial roles in maintaining efficiency, safety, and the longevity of our plants and pipelines. In many circumstances, the best route is for end users to focus on an easily projectable cost that ensures quality along with best value.
Early value engineering creates opportunities to identify cost savings and efficiency improvements during the design phase, ultimately leading to stronger project outcomes with a higher ROI. By engaging collaborative teams early, project stakeholders can combine their expertise to develop innovative, practical solutions that enhance both performance and long-term reliability.
For example, thoughtful planning of valve placement and system high points along a transmission main can significantly improve hydraulic performance and system protection. Properly managing entrained air and pressure fluctuations reduces strain on pumps, lowers energy consumption, and helps maintain consistent flow conditions. These considerations also decrease the likelihood of pressure transients, flow restrictions, and localized stress within the pipeline, all of which can contribute to premature failures and increased maintenance costs that have a direct impact on the overall ROI.
This approach gives us the ability to effectively manage labor costs throughout the entire life cycle of the project by eliminating longer lead times, a potentially lengthy submittal process, unplanned jobsite labor, and potential maintenance issues after construction is completed.
Though these responsibilities can seem complex, collaboration with industry professionals and technical experts offers valuable support—strengthening awareness, expanding understanding, and helping teams proactively navigate challenges across the project life cycle.
Real-World Results: Application-Driven Solutions in Water and Wastewater Operations
Consider a recent project challenge that was centered on a critical isolation valve supplying a raw water plant intake, a component essential to maintaining uninterrupted operations. The application presented unique challenges, including exposure to plant water with high mineral content and the added risk of sediment intrusion from ongoing dredging operations upstream of the intake. With an expected design life exceeding 80 years, long-term performance was not optional. Dependable, reliable isolation was paramount to the overall success and resilience of the facility. As a result, valve selection could not be based solely on initial cost; technical performance, durability, and total installed lifetime cost were key factors in the evaluation and decision-making process. This approach maximized life cycle value while reducing the risk of costly unplanned shutdowns, including valve replacement, regulatory penalties, and lost production.
Another notable example comes from a wastewater utility in the Southeast that initially faced continuous pump run times of 24 hours per day and was subsequently reduced to 1.2 hours per day. By incorporating advanced technology and replacing two critical valves along the force main, it achieved substantial reductions in energy costs, resulting in an immediate return on investment that recouped the cost of the valves within just a few months despite the higher initial expense compared to traditional solutions. This upgrade not only optimized operational efficiency but also reduced labor requirements for operators and significantly decreased pipeline failure rates.
Collaboration Is No Longer Optional
As regulatory pressure mounts, aging infrastructure strains budgets, and effects of climate change increase, water and wastewater operators must seek new ways to deliver reliable, scalable systems.
Collaborative delivery is not just a procurement model; it is a mindset that sees each valve not as a standalone part, but as an intelligent node in a living, evolving water ecosystem. And in that ecosystem, partnership is the new power.