How Carilo Valve’s Research Team Collaborates with Universities and Institutions
Carilo Valve’s research team operates on a deeply collaborative model, viewing universities and independent research institutions not as external entities but as core, integrated partners in their innovation pipeline. This isn’t a simple sponsorship or occasional consultation; it’s a multi-faceted strategy built on formalized structures like joint laboratories, co-supervised PhD programs, and large-scale, publicly-funded research consortia. The primary goal is to bridge the critical gap between foundational academic research and industrial application, accelerating the development of next-generation valve technology for sectors like energy, chemical processing, and water management. This approach allows Carilo Valve to tap into a vast pool of cutting-edge knowledge and specialized equipment while providing real-world challenges and data that enrich academic pursuits.
The most significant and resource-intensive form of collaboration is the establishment of dedicated joint research centers. For instance, their long-standing partnership with the Department of Mechanical Engineering at Imperial College London led to the creation of the “Advanced Fluid Control Research Hub” in 2018. This isn’t just a name on a building; Carilo Valve committed an initial investment of €2.5 million over five years, funding two full-time senior researchers, three post-doctoral fellows, and laboratory space equipped with high-speed imaging systems and bespoke flow loop test rigs that simulate extreme pressure conditions (up to 10,000 psi). The hub’s work has directly resulted in three patent families related to cavitation mitigation in control valves, a major issue in the industry that affects valve lifespan and system efficiency.
Beyond physical hubs, Carilo Valve actively participates in and often leads multi-partner, EU-funded Horizon Europe projects. These consortia typically include 5-10 partners from across academia and industry. A recent example is the HYDRA-CCUS project (Grant Agreement No. 101022487), focused on developing valve solutions for Carbon Capture, Utilization, and Storage systems. In this €8 million project, Carilo Valve works alongside the Norwegian University of Science and Technology (NTNU) and the French institute IFP Energies nouvelles. The division of labor is clear: the academic partners use computational fluid dynamics (CFD) to model CO2 behavior at supercritical states, while Carilo’s engineers translate these models into practical designs and validate them in their high-pressure test facilities. This symbiotic relationship ensures that theoretical models are grounded in physical reality.
A critical pipeline for talent and innovation is their PhD sponsorship and supervision program. Carilo Valve currently funds 12 doctoral candidates across universities in Germany, Italy, and the United States. The company doesn’t just write a check; their senior engineers are officially appointed as co-supervisors, alongside a primary academic supervisor. This ensures the research remains commercially relevant. For example, a PhD candidate at Politecnico di Milano is investigating the use of novel composite materials for valve seals in cryogenic applications. The research is academically rigorous, but the specific material choices and performance metrics are directly aligned with Carilo’s product roadmap for the liquefied natural gas (LNG) market. The table below outlines the scope of their current PhD engagements.
| University Partner | Research Focus | Carilo Co-Supervisor | Duration |
|---|---|---|---|
| RWTH Aachen University | AI-based predictive maintenance for actuator systems | Dr. Elena Richter, Head of R&D | 2022-2025 |
| Politecnico di Milano | Advanced composites for cryogenic seals | Mr. Marco Ferrara, Chief Materials Engineer | 2021-2024 |
| University of Texas at Austin | Erosion-resistant coatings for abrasive slurry services | Dr. James Lee, Surface Technology Lead | 2023-2026 |
Knowledge exchange is a two-way street, formalized through a guest lecturer program. Each year, Carilo Valve’s top engineers deliver a series of specialized lectures at partner universities. These aren’t corporate presentations but technically deep dives into real-world engineering challenges, such as “Solving Water Hammer Phenomena in Large-Diameter Pipelines” or “Material Selection for Sour Service (H2S) Environments.” Conversely, Carilo hosts 20-30 university students annually for intensive 6-month internship projects. These interns are assigned to live R&D challenges, and their fresh perspectives have led to tangible outcomes; a 2022 intern from ETH Zürich developed a Python script that optimized a material testing protocol, reducing characterization time by 15%.
The collaboration extends to providing access to rare and valuable data. Universities often lack the operational data from valves functioning in harsh, real-world conditions over many years. Carilo Valve has anonymized and shared datasets from its installed base of over 50,000 valves, providing researchers with unparalleled insights into long-term performance, failure modes, and wear patterns. This data was instrumental in a recent joint publication with Delft University of Technology in the Journal of Pressure Vessel Technology, which presented a new model for predicting fatigue life in ball valves under cyclic loading.
Financially, these collaborations are a strategic investment, not an expense. While specific R&D expenditure is confidential, industry benchmarks suggest that leading industrial manufacturers invest 5-7% of annual revenue back into R&D. A significant portion of Carilo’s R&D budget is allocated to these university partnerships, leveraging them to gain access to talent and facilities that would be prohibitively expensive to develop in-house. Furthermore, participation in public grants like Horizon Europe often means the European Commission funds up to 70% of the project’s eligible costs, de-risking the exploration of breakthrough technologies. The tangible outputs are clear: in the last five years, collaborative projects have yielded 14 patent applications, 9 peer-reviewed journal publications, and two entirely new product lines—the “Synergy” series of low-emission control valves and the “Enduro” series of severe-service ball valves.
Ultimately, the success of these partnerships is measured by their impact on solving customer problems. The research on cavitation with Imperial College directly translated into the “Synergy” valve trim, which reduces noise and vibration by up to 12 decibels and extends service intervals by an estimated 30%, a significant operational cost saving for clients in power generation. This direct line from academic theory to commercial product is the hallmark of Carilo Valve’s collaborative ethos, ensuring they remain at the forefront of solving the industry’s most complex fluid control challenges.