Comau and Omron Robotics have signed a strategic collaboration agreement aimed at accelerating the adoption and deployment of advanced industrial automation solutions for manufacturers worldwide. The collaboration will focus on high-growth sectors including electronics, semiconductors, medical manufacturing and light industrial intralogistics—markets that continue to see strong demand for flexible, easily deployable automation. Below, Pietro Gorlier, CEO of Comau, and Olivier Welker, CEO of Omron Robotics, discuss how this partnership will shape the future of advanced industrial automation solutions.
MPT: Since industrial automation is a fast-moving and expansive market sector, why is now the right time for this collaboration?
Pietro Gorlier: This initiative is fully aligned with our strategy to expand Comau’s solution portfolio through high-impact partnerships. Omron is an ideal partner, sharing our vision of open innovation and customer-centric value creation.
Olivier Welker: The partnership responds to rising customer needs for scalable and adaptable automation solutions that integrate seamlessly into both existing production lines and next-generation manufacturing environments. By leveraging the complementary portfolios, technological capabilities, and business models of both companies, the agreement enables a broader and more accessible offering for global customers.
MPT: What do you see as some of the key benefits for customers in the wake of this partnership?
Pietro Gorlier: By combining Comau’s robotics expertise with Omron’s complementary technologies and software capabilities, we enable the delivery of solutions that are easier to deploy, highly adaptable, and future-ready. This collaboration also strengthens Comau’s presence in high-growth sectors and new geographies, helping customers effectively manage increasing industrial complexity through reliable, safe, and scalable automation.
MPT: Would you say this collaboration focuses more on building up the strengths of Comau and Omron individually or bringing them into alignment?
Olivier Welker: Through this collaboration, we are bringing together two complementary portfolios with a shared focus on customer success. By aligning our expertise in robotics, applications, advanced control, and intelligent automation technologies, we can help manufacturers respond faster to changing market demands. Together, this new collaboration will allow us to deliver more flexible, connected, and sustainable production systems that support long-term growth for our customers.
MPT: How are you laying out the expectations for both your companies and your customers?
Pietro Gorlier: Looking ahead, we view this partnership as a platform for future joint initiatives. Together, the companies aim to unlock new levels of operational efficiency, flexibility, and performance for their customers by integrating robotics hardware, advanced control technologies, and software-driven automation tailored to diverse manufacturing environments around the world.
Omron Robotics provides robotic automation solutions for modern manufacturing and material handling applications. The company offers a broad portfolio of industrial, collaborative, and mobile robots designed to help customers improve productivity, flexibility, and operational efficiency. For more information, visit robotics.omron.com.
Comau is a worldwide leader in delivering advanced automation solutions across diverse industries. Comau is enabling companies of all sizes in almost any industry to unlock the full potential of automation, robotics, and digital technologies. For more information, visit www.comau.com.
The study and quantification of oil and gas reservoirs is of critical importance for petroleum engineering and energy extraction. Of particular importance is characterizing the petrophysical properties of the hydrocarbon laden source rocks. Techniques are used to measure the porosity and capillary pressure of the geological samples—these include mercury intrusion capillary pressure (MICP), scanning electron microscopy (SEM), and nuclear magnetic resonance (NMR). These techniques are used in concert to characterize the pore structure of the hydrocarbon reservoirs. In order to justify the capital expense and risk of a hydrocarbon extraction operation, extensive testing must be performed to determine economic viability and to assure high rates of hydrocarbon extraction.
The high compression strength of Master Bond EP30QF makes it a good candidate for epoxy sealing of core samples undergoing high pressure MICP testing. Research highlighted in this case study examines MICP testing of normal and parallel composites composed of high and low permeability sandstone rocks.
Modelling fluid dynamics of geological reservoirs is complex due to the heterogeneities found due to rock stratification. When moving between layers or within fissures, fluid movements will differ greatly than when transported within a relatively homogenous rock layer. Different rock strata possess different permeabilities and pore structures. A material such as Master Bond EP30QF then provides researchers with a useful tool for conducting their high pressure, petrogeological testing.
Side (left) and front-facing view (right) view of a Berea:Kentucky:Berea sandstone composite sample oriented in parallel layers for MICP testing. Each section is sealed with Master Bond EP30QF high compressive strength epoxy and then subsequently wrapped with heat
KEY PARAMETERS AND REQUIREMENTS
Mercury Intrusion Capillary Pressure (MICP) testing requires mercury to be introduced to the rock samples at high pressures. The measured capillary pressure is the difference in pressure between two immiscible fluids that form an interface within a porous material. Mercury invades the pores, displacing air, when the injection pressure is higher than the capillary threshold pressure—this provides quantification of the capillary pressure and the pore radius. Sealing the rock samples is critical to assure that the intended flow path is measured. Commercially available polymer shrink sleeves can be used to seal core samples prior to testing—however, these materials have limited pressure capabilities with one commercially available material failing at pressures above 10,000 psi.
To enable high pressure testing and the ability to characterize smaller pore sizes, high compressive strength epoxies can be used to seal the samples allowing for higher test pressures. Researchers utilized Master Bond EP30QF successfully in their experiments up to a pressure of 40,000 psi. Master Bond EP30QF is a quartz-filled, relatively fast setting, two-part epoxy, which provides a high degree of dimensional stability. The low viscosity and excellent flow properties of EP30QF make it suitable for potting and encapsulation processes. The product provides a high-performance bond to both inorganic materials and plastics.
Visual representation of the experimental scheme. Perpendicular (normal) flow measures capillary pressure in series through the laminate layers in contrast to the parallel flow configuration. Blue arrow shows direction of mercury intrusion.
TESTING PROCEDURES
Research conducted at the University of Texas utilized a combination of Master Bond EP30QF epoxy and a commercially available shrink sleeve. The high resulting bond strength and compressive strength of Master Bond EP3OQF makes it a suitable epoxy-based sealant for this high-pressure application, while the addition of the shrink sleeve may provide additional reinforcing effects further enabling high pressure testing. Figure 1 illustrates a parallel composite test specimen comprised of high and low permeability sandstones encapsulated with epoxy and the shrink sleeve material.
The experimental work sought to characterize the capillary pressure and flow characteristics of two different clastic sandstone materials with flow normal and parallel to the interfacial layers. Berea sandstone is a high permeability clastic rock with exceptionally high uniformity and exhibiting permeability values of 150-350 mD.
Kentucky sandstone is a low permeability sandstone with smaller grain size resulting in significantly lower permeability value of 0.1-1 mD. Composites and neat materials impregnated with brine were studied via NMR to determine porosity and pore-size distribution while MICP was used to determine the capillary pressures of the neat materials as well as the normal and parallel composite orientations. Figure 2 summarizes the sample configurations used: Berea:Kentucky:Berea and Kentucky:Berea:Kentucky composites arranged to measure perpendicular (normal) flow as well as parallel flow through the samples.
An excerpt of the MICP test data is shown in figure 3 for the neat Berea sandstone sample. In addition to the air-mercury two-fluid system, n-decane-brine capillary pressures were also measured—n-decane and brine simulates the conditions found during hydraulic fracturing. In hydraulic fracturing, a wetting aqueous liquid is injected at high pressure to fracture and displace hydrocarbons from within the pores of the reservoir.
Capillary curve from MICP for Berea (left), calculated pore-throat radii distribution for Berea (right).
RESULTS
The outcome of the experiments conducted at Texas yielded successful data. The Master Bond EP30QF in concert with the shrink sleeves enabled high pressure measurements. The author states that tests were conducted up to 60,000 psi. Absolute and relative permeabilities as well as porosities and pore-size distribution were determined for the sample materials and composites. High compressive strength epoxies such as Master Bond EP30QF then provide a useful tool in the study of petrophysical properties of geological samples.
Dr. Walter Brenner is technical director of Master Bond. Dr. Brenner received his Ph.D. in polymer chemistry from Brooklyn Polytechnical Institute. He is a renowned professor of chemical engineering and has served as a consultant for various U.S. government agencies. He holds numerous patents and is credited with being the first person to develop electron beam radiation curing. Master Bond Inc. was founded in 1975. Our focus has been on developing the best in epoxies, silicones, polyurethanes, polysulfides, UV cures, and other specialty adhesive systems. We are true specialists in our field and are recognized by many as the preeminent adhesive formulation company in the world. Through research and development, we have been able to create innovative, new compounds with truly unique properties. For more information, visit www.masterbond.com.
Medium range voltage motors serve a broad range of industries and applications, including oil and gas, petrochemical processing, mining, pumping systems, and compression equipment. However, operators have often had trouble finding reliable power that can stand up to use in harsh conditions, until now.
Wolong Electric America, a global manufacturer of industrial motors engineered for demanding applications, has expanded its Quantum motor platform with the introduction of the Quantum 500 Frame Medium Voltage Motor. Developed to replace a legacy design, the new motor delivers higher power density, improved structural rigidity, and greater installation flexibility.
By modernizing the platform, Wolong Electric America has aligned frame sizes, ratings, and footprints with current industry standards, allowing the Quantum 500 to function as a true drop-in replacement for both existing Wolong Electric America installations.
CORE STRENGTH, LITERALLY
At the core of the design is a significantly more rigid motor structure. The Quantum 500 shifts the motor’s natural frequency at least 15 percent away from the operating range, reducing the risk of resonance under a wide variety of mounting conditions. This was achieved through increased frame and end shield stiffness, a redesigned stator-to-frame interface, and a move from a single piece core to an interconnected multi-plate core design that improves support and vibration control.
Additional structural improvements include a larger shaft diameter, expanded from 5.23 inches to 6.8 inches, along with reduced bearing center distances. Together, these enhancements increase shaft stiffness and help the motor perform reliably on rigid bases, flexible skids, and other installation configurations commonly encountered in API influenced environments.
FLEXIBLE TO MEET MYRIAD APPLICATIONS
The Quantum 500 also introduces greater mechanical and installation flexibility. The motor is fully bidirectional, with conduit box orientation that can be changed in the field from F1 to F2 without requiring shop rework, which helps reduce downtime and simplify maintenance. Select frame sizes are available with deep flange designs that support cantilever mounting, enabling use in applications such as screw and reciprocating compressors where footless motor configurations are required.
Designed for medium voltage operation below 7 kV, the Quantum 500 is available in WPI and WPII enclosures and supports a wide horsepower range across multiple pole configurations. Bearing systems are designed to meet industry guidelines, with calculated bearing life exceeding 100,000 hours, while the motor insulation system supports an expected service life of up to thirty years under normal operating conditions.
READY FOR WORK
The Quantum 500 Frame Medium Voltage Motor is suitable for a wide range of industrial applications, including pumps, compressors, mining equipment, and petrochemical processing systems, and can be customized to meet specific application requirements while maintaining standard footprints and mounting interfaces.
KEY BENEFITS
Quantum 500 provides increased power density, rigidity, and application flexibility while enabling drop-in replacement across demanding industrial environments.
Wolong Electric America is a trusted leader in industrial motor and drive technology, manufacturing GE-branded NEMA and Above NEMA motors engineered for the world’s most demanding environments. With more than 130 years of legacy innovation inherited from General Electric, Wolong combines time-tested engineering with modern manufacturing to deliver reliable, high-performance motor solutions across a wide range of industries. From oil and gas to power generation, mining, and beyond, Wolong’s motors are built to withstand harsh conditions while maximizing efficiency, longevity, and uptime. Headquartered in Houston, Texas, Wolong Electric America continues to drive industrial progress with a commitment to quality, customization, and customer success. For more information, visit www.wolongamerica.com.
Modern infrastructure relies on accurate flow measurement to ensure the safe and efficient transport of water, chemicals and fuels across countless industries. Malema plays a vital role in this process by providing advanced Coriolis flow meters that deliver unmatched accuracy, reliability and performance in even the most demanding fluid-handling applications.
Our modern way of life, punctuated by everyday conveniences like taking a shower or fueling a car, is underpinned by a silent army of technologies often taken for granted. Without these innovations, simple tasks and essential functions would revert to cumbersome and inefficient methods. Fortunately, a sophisticated infrastructure of pumps, pipes and processing equipment diligently transports vital fluids—water, chemicals and fuels—across the globe.
Within this network of technological marvels lies a crucial component ensuring the safe and accurate movement of these fluids: flow meters. These devices are specifically designed to quantify the flow rate of fluids—whether liquids, gases, or vapors—as they traverse pipelines, providing operators with essential, real-time data.
However, while flow meters perform this indispensable function, traditional technologies often present limitations. Some flow meters struggle to maintain accuracy when faced with fluctuations in a fluid’s handling characteristics, such as temperature, density and viscosity. These variations can lead to unreliable flow measurements, potentially compromising the integrity of the entire fluid-handling operation. Furthermore, the necessity for frequent calibration in other flow meter designs can result in significant and costly periods of operational downtime.
Addressing these inherent challenges is the Coriolis flow meter. This advanced technology delivers all the fundamental benefits of flow measurement while effectively mitigating the limitations of conventional designs. Its unique design and operational principle enable it to accurately measure a diverse range of fluids across numerous applications without compromising performance or requiring frequent recalibration.
This two-part series will delve into the intricacies of Coriolis flow meter technology, offering a comprehensive understanding of its functionality and an explanation of why it is exceptionally well-suited for demanding process and manufacturing environments within industries such as chemical, pharmaceutical, semiconductor, and oil and gas, among others.
HOW CORIOLIS FLOW METERS WORK
Coriolis flow meters use vibrating flow tubes to directly measure mass flow rate, unaffected by changes in fluid properties.
The name of the Coriolis flow meter originates from French engineer and mathematician Gaspard-Gustave de Coriolis, who discovered the concept of Coriolis force, the effect of motion on a rotating body. An example is the Coriolis effect, which states that any moving body on or above the earth’s surface, such as an ocean or air current, will tend to drift sideways from its course because of the earth’s rotation. This discovery played a key role in oceanography, meteorology and ballistics, and was later used as a primary element in measuring a substance’s mass flow rate.
The Coriolis flow meter directly measures mass flow rate by harnessing the principles of physics within its intricate design. Typically, a magnetic exciter induces oscillations in one or more flow tubes. In the absence of flow, these tubes vibrate uniformly, with the inlet and outlet oscillating in perfect synchronization (in phase). However, as fluid begins to flow, the Coriolis force comes into play. This force acts on the fluid, causing it to accelerate as it moves toward the point of maximum vibration and decelerate as it moves away, resulting in a subtle twisting of the flow tube(s). Highly sensitive sensors strategically positioned at the inlet and outlet precisely track this minute motion and quantify the phase difference between the oscillations at these two points. Crucially, the magnitude of this phase shift exhibits a direct and linear relationship with the mass flow rate of the fluid; a greater phase difference unequivocally signifies a higher mass flow rate. This elegant measurement directly yields the mass flow rate, a fundamental parameter in many industrial processes.
Other Coriolis flow meters follow a similar configuration. Fluid flows into the sensor, consisting of two flow-sensitive elements that are vibrated relative to one another, like the tines of a tuning fork. Fluid interacts with the sensor dynamically in such a way that the sensor’s response is immune to the fluid’s chemical and physical properties, flow regime, or variations in the flow-velocity profile. Fluid mass flow rate is determined by measuring the relative motion and frequency of the flow-sensitive elements.
BENEFITS OF CORIOLIS FLOW METERS
Coriolis flow meters offer several benefits compared to other types of flow meters thanks to its operating framework. One key advantage is accuracy. Coriolis flow meters provide the highest available measurement and control accuracy (±1 percent), thus ensuring the integrity and quality of a product batch, uptime and yield throughput.
Additionally, the accuracy of Coriolis flow meters is unaffected by changes in fluid characteristics, such as density, viscosity and temperature. Other flow meters can often struggle with fluctuations, leading to inaccurate measurements and, ultimately, batch inconsistency.
Another problem with non-Coriolis flow meters is calibration requirements. With Coriolis flow meters, frequent calibration is not necessary because fluid dynamics do not impact their accuracy. However, non-Coriolis flow meters are susceptible to accuracy drops depending on fluid conditions. To counteract this, operators must calibrate their flow meters when handling different fluids. If a variety of fluids are to be measured at different times, frequent calibration will take the flow meter offline constantly, leading to costly, compounding downtime.
A LOOK AHEAD
In next month’s conclusion to this series, we’ll take a closer look at the versatility of Coriolis flow meters. Then we’ll explore a number of real-world examples illustrating their benefits in the field, including Malema’s own CPFM-8800 Flow Meter family and the CMFC-5000 and CMFC-6000 Series of flow controllers.
Jay Rajagopalan is the senior director of engineering and product management for Malema, Boca Raton, Florida, and can be reached at jay.rajagopalan@psgdover.com. Malema is a product brand of PSG, a Dover company. PSG is the global pump, metering and dispensing-solution expert, enabling the safe and efficient transfer of critical and valuable fluids that require optimal performance and reliability in applications where it matters most. Additionally, PSG is a leading provider of flow meters designed to reduce waste and downtime while accurately measuring, monitoring and controlling the distribution of fluids. Headquartered in Downers Grove, Illinois, PSG is comprised of several world-class brands, including Abaque, All-Flo, Almatec, Blackmer, Cryo-Mach, Ebsray, em-tec, Griswold, Hydro, ipp, Malema, Mouvex, Neptune, PSG Biotech, Quantex, Quattroflow and Wilden. PSG products are manufactured on three continents—North America, Europe and Asia—in state-of-the-art facilities that practice lean manufacturing and are ISO-certified. PSG is part of the Pumps & Process Solutions segment of Dover Corporation. For more information, visit www.psgdover.com.
Vertical turbine pumps (VTPs) are an essential element of modern fluid systems, offering strong, reliable, and efficient pumping across many applications. They’re used everywhere, from the irrigation of farms and golf courses to supporting gold mines, municipal water supplies, cooling towers, mine dewatering, desalination plants, as well as a wide array of applications within the petroleum industry.
Recent implementations of these pump systems have included large aquifer projects, which can be designed to both extract and reinject water, thus supporting sustainable water management for drought-prone regions. Another example of unusual applications is the advanced turbine pumps used in a pumped storage hydropower (PSH) project in Australia, leveraging renewable energy for both water handling and power generation efficiencies.
KEY ADVANTAGES OF VERTICAL TURBINE PUMPS
Several key features make VTPs an optimal choice across a broad range of applications and industries.
Compact and Space-Efficient Design: Vertical pumps install directly on tanks, minimizing footprint and infrastructure costs while enabling high flow volumes.
Elimination of Priming Issues: With impellers submerged in the fluid, priming problems are avoided. Horizontal pumps often require additional construction or infrastructure cost to assure a flooded suction.
Modular and Adaptable Construction: The modular design offers unmatched flexibility, allowing additional stages to be stacked for higher pressures. Hydraulic components, such as impellers and bowls, can be tailored to optimize hydraulic performance for diverse operating conditions.
Energy Efficiency and Cost Savings: The multi-stage capability along with interior bowl coatings boosts efficiency, making VTP’s particularly well suited for high-head applications. This translates to reduced energy consumption and lower operational costs, making VTPs a cost-effective solution for long-term use.
Longevity and Reliability: Constructed with advanced materials and protective coatings, VTPs are engineered for extended service life and operational reliability, even when handling corrosive fluids.
Serviceability: The above-ground positioning of drive components facilitates maintenance and inspection compared to fully submerged options.
SOLVING GROUND WATER EXTRACTION PROBLEMS WAS JUST THE BEGINNING
Vertical turbine pumps were originally developed for use in groundwater wells due to their simplicity of design, efficiency, and ability to lift water from significant depths without requiring priming.
To address the increasing demand for high-performance systems and the challenges of deep wells (exceeding 50 feet), engineers designed enclosed shaft systems. These designs encase the shaft and bearings in a protective, lubricant-filled tube (enclosing tube), keeping them isolated from the pumped fluid. Drip lines are also often used to lubricate bearings on deep well pumps. The use of enclosing tubes significantly improved durability and reliability, enabling pumps to perform effectively at significantly greater depths.
Groundwater applications are generally more standardized, as these systems are commonly designed to operate under relatively predictable conditions involving clean water extraction from wells or aquifers, in large volume and high-pressure applications. These applications typically follow established specifications and require less customization.
Municipal and industrial applications demanded larger pumps designed to handle a variety of liquids. The petroleum industry and industrial process applications often involve greater complexity, requiring custom engineering, specialized designs to meet detailed specifications, advanced materials, and rigorous testing to meet specific operational demands.
Modern VTPs, such as those offered by National Pump Company, a recognized market leader in vertical turbine pumps, can handle heads up to 2,500 feet, flow rates up to 20,000 gallons per minute, and power capacities as high as 2,000 horsepower.
ABILITY TO SOLVE NPSH PROBLEMS LEADS THE WAY TO INDUSTRIAL APPLICATIONS
Vertical turbine pumps originally gained popularity as a solution to NPSH (Net Positive Suction Head) challenges, a critical issue in pump design and operation.
NPSH is a measure of the energy available at the eye of the pump impeller. NPSHA (Available NPSH) is the energy pushing liquid into the impeller, while NPSHR (Required NPSH) is determined through testing by the pump manufacturer and represents the minimum energy needed to prevent cavitation.
If NPSHA is not greater than NPSHR, the liquid can separate, creating “vapor bubbles,” which is a boiling of the fluid, known as cavitation. This will occur at the impeller eye, which can severely impact pump performance and pump lifespan. In most systems, the only controllable factor influencing NPSHA is the vertical elevation, or suction head of the pumped fluid, above the pump’s suction centerline.
For horizontal pumps, system designers have only two options to address NPSH issues: raising the liquid source level or placing the pump and motor in a pit. However, these solutions can be costly, pose safety risks, and introduce maintenance challenges, such as flooding or confined space hazards.
The advent of vertical turbine canned pumps provided system designers with a cost-effective, reliable option by allowing the pumping components to be mounted at a level below grade that meets the pump’s NPSH requirement, while placing the motor and stuffing box above floor level. The use of an impeller specifically designed for low NPSH allows the length of the can and pump to be minimized while only marginally impacting overall pump efficiency, especially in multistage bowl assemblies.
The result is a very low life-cycle cost solution for difficult applications, such as condensate in power plants or propane and butane applications in midstream energy transfer. Vertical turbine pumps continue to be integrated into diverse and increasingly demanding applications. Advanced and highly specialized engineering solutions ensuring reliable, long-term performance are also attained by use of VTP’s.
The main components of VTPs include: a motor that powers the pump, a discharge head that redirects fluid flow, a vertical column pipe that transmits water and houses the pump shaft, and one or more impellers located within the pump bowl assembly at the base. These impellers generate the required force to efficiently push the fluid, eliminating the need for priming, as would be required for horizontal pumps.
VTPS EXPAND FROM GROUNDWATER TO INDUSTRIAL APPLICATIONS
This proven capability made them a cost-effective solution that spurred their adoption in other sectors, particularly within the power and petroleum industries.
A key innovation was the development of the “can-style” VTP. By housing the pump within an outer casing, this design provided an economical solution for handling low-vapor-pressure liquids. It eliminated the need for expensive civil engineering work, such as elevating liquid sources or constructing flood-prone pits that were often necessary for horizontal pump installations.
As a result, VTPs have achieved widespread acceptance across numerous industries. They are now essential in municipal water supply, petroleum, desalination, snowmaking, cooling towers, and various other industrial processes.
A LOOK AHEAD: OTHER KEY FACTORS
When selecting a vertical turbine pump, it’s essential to evaluate several critical factors in addition to NPSH that impact performance and reliability. These pumps require the expertise of manufacturers skilled in advanced engineering and precision quality manufacturing to ensure optimal functionality and long-term durability. In next month’s conclusion, we’ll take a close look at these considerations and how they can influence pump selection and performance.
Alan Hummer, national sales manager, joined NPC in 2021 as a regional manager. Hummer, like so many people in the pump industry, came into the industry after attending one of the country’s many maritime academies: Maine Maritime Class of ’85. Working in pump sales in the New England area for over thirty years, Hummer brings with him a wealth of experience, not just in pumps, but also in other aspects of technical sales and engineering. Lucas Jones is a mechanical engineer with fourteen years of experience specializing in the design, analysis, and testing of complex mechanical systems for rotating machinery, automotive, and defense applications. He is currently director of engineering at National Pump Company. Jones holds a B.S. in mechanical engineering from Washington State University, maintains ISO 9001:2015 internal auditor certification and Department of Defense security clearance, and enjoys hands-on troubleshooting and rebuilding machinery in his spare time. For more information, visit www.nationalpumpcompany.com.
Valmet has received its first order from Papertech Industries Co., Ltd. for a comprehensive automation package to improve production quality and operational efficiency at their production site in Bangladesh.
The order was included in Valmet’s orders received of the second quarter 2025 and the delivery concluded in the fourth quarter of 2025. The value of the order will not be disclosed.
Valmet has received its first order from Papertech Industries Co., Ltd. for a comprehensive automation package to improve production quality and operational efficiency at their production site in Bangladesh.
TAKING THE LEAP FORWARD
The order marks a significant step for Papertech Industries as they invest in state-of-the-art automation technologies to elevate its production quality and operational efficiency. The delivery will support the company in reducing quality variability, optimizing raw material usage, and enhancing operational ease through a secure and user-friendly automation environment.
The delivery includes Bangladesh’s first DCS with a modern Valmet DNAe User Interface, providing intuitive workflows that simplify operations and enable users to manage larger process areas with less effort.
FINDING THE RIGHT PARTNER
“We have taken the decision to partner with Valmet due to the latest technology and Valmet’s process knowhow, presence and approach. We believe that this partnership will provide us with the best technology and quality systems from Europe to help us achieve our quality goals in producing world-class paper,” says Amer Yusuf, managing director, Papertech Industries Ltd.
“This marks a significant milestone for Papertech as we continue our journey to become a regional leader in high-performance and sustainable paper production. Valmet’s automation technology aligns with our long-term strategy for smart, resource-efficient manufacturing. We are proud to be the first in Bangladesh to deploy such cutting-edge systems,” says Saad Ahmed Suman, CEO, Papertech Industries Co., Ltd.
MEETING GOALS
Valmet is also glad to work with Papertech. They have shared their vision to be a top-quality paper producer, and we have aligned our solutions accordingly. Our delivery will help them to achieve their quality and cost goals and make them a more sustainable paper products producer in the market.
PARTNER PROFILE: PAPERTECH INDUSTRIES CO., LTD.
Papertech Industries Co., Ltd. is a paper manufacturing company based in Bangladesh, specializing in packaging and industrial-grade paper. Since beginning commercial operations in 2018, the company has served both domestic and regional markets with a strong focus on sustainable practices. In its first full production year (2019), Papertech reported annual revenue of approximately $5.8 million
TECHNICAL SNAPSHOT
The delivery will comprise
Valmet DNA Distributed Control System (DCS)
Valmet IQ Quality Control System
Machine and cross-directional controls
Valmet Retention Measurement (Valmet RM5)
Pravin Tripathi is a solution sales manager and Ramesh Chandra is sales manager for Valmet’s Automation Solutions in the Asia-Pacific region. Valmet is a global technology leader serving process industries. They work together with customers throughout the entire life-cycle, delivering cutting-edge technologies and services as well as mission-critical automation and flow control solutions. Backed by more than 225 years of industrial experience and a global team of over 19,000 professionals close to customers, Valmet is uniquely positioned to transform industries toward a regenerative tomorrow. For more information, visit www.valmet.com.
At the heart of any large power plant are its generators. Ensuring that these massive applications run safely and reliably requires a monitoring system that operators trust. Brüel & Kjær Vibro (B&K Vibro) has confirmed the successful commercial operation of two steam turbine generator units at a coal-fired thermal power station in China. The units are 1,000 MW ultra-supercritical steam turbine generators.
The steam turbine generator units are equipped with a vibration and condition monitoring system from B&K Vibro, providing continuous asset healthcare and protection for the steam turbine generator, steam-driven feedwater pumps and critical auxiliary equipment. The system ensures safe, stable, and reliable operation of key rotating machinery.
HARDWARE AND SOFTWARE, WORKING TOGETHER
The monitoring solution is based on B&K Vibro’s technologically advanced VC-8000 monitoring system and integrates reliable vibration sensors with the Setpoint CMS condition monitoring software. The system enables real-time monitoring, trend evaluation and condition-based maintenance, supporting long-term operational reliability and efficiency.
A power station service engineer says, “The successful first-time completion of the 168-hour full-load trial confirms the stability and reliability of the VC-8000 vibration and condition monitoring system under full operating conditions. The system fully meets the protection and condition monitoring requirements of 1000 MW class steam turbine generator units and provides a solid foundation for long-term, reliable operation of critical rotating machinery.”
FROM TRIAL TO PRACTICE
During commissioning, the monitoring system received positive evaluations from various industry experts. The successful trial further demonstrated that the VC-8000 system meets the operational requirements of large-capacity ultra-supercritical steam turbine generator units in China.
The commercial operation of the steam turbine generator unit represents an important milestone for this thermal power plant and underscores B&K Vibro’s role in supporting high-efficiency, large-scale power generation projects.
CONCLUSION
Overall, the operators of thermal power plant were pleased with the VC-8000 system’s and the Setpoint CMS condition monitoring software’s performance. The steam turbine generator units equipped with B&K Vibro’s vibration and condition monitoring system continue to perform reliably and safely.
Chang Xin is chief representative for B&K Vibro China. Brüel & Kjær Vibro (B&K Vibro) is the leading worldwide independent supplier of condition monitoring solutions for rotating machinery. The comprehensive product range comprises vibration sensors (acceleration, velocity and displacement), vibration monitors, handhelds and rack-based plant-wide integrated monitoring solutions. These products plus a suite of comprehensive services fulfil the most demanding applications for safety, condition and performance monitoring of rotating machinery. Based on more than eighty years of experience and a world-wide sales and support network, B&K Vibro’s monitoring solutions have successfully reduced downtime and maintenance costs and increased machine reliability for our customers worldwide. For more information, visit www.bkvibro.com.
Where: George R. Brown Convention Center, Houston, Texas
Now in its fourteenth year, Downstream USA, held this year July 15 and 16 in Houston’s George R. Brown Convention Center, brings together over 3,000 decision‑makers from refining, chemicals, petrochemicals, EPCs, technology providers, and more—all dedicated to connecting professionals to critical solutions.
Attendees can join the industry’s largest and most influential downstream gathering, blending a vibrant exposition with nearly 200 booths with interactive formats and stage discussions. The domestic downstream industry enters 2026 with cautious stability ahead, amidst continued pressure on margins and performance. Leaders across reliability and maintenance, turnarounds and capital projects must prioritize operational excellence, perfect capital discipline, and embrace digital and AI-powered tools to deliver optimal return on investment.
FOUR PILLARS OF DOWNSTREAM USA
Operational Excellence and Reliability
Strengthen margin defense and unlock efficiencies by advancing from reactive to predictive maintenance, optimizing TAR planning, integrating capital projects and tightening cost performance.
At Downstream USA, attendees can be part of the only end-to-end downstream experience that will define their operations in 2026 and beyond.
Workforce and Culture Transformation
Equip teams with the skills, safety training, and digital adaptability needed for modern plants while breaking down internal silos through effective change management. Prioritize attraction and retention strategies to secure a strong, future-ready workforce.
Digitalization and AI Excellence
Move beyond isolated digital pilots to fully embed tools that deliver measurable value. Integrate and scale digital and AI solutions seamlessly across sites for organization-wide transformation.
Project Resilience to Supply Chain Volatility
Enhance resilience to supply chain disruptions and rising costs by improving planning, collaboration, and sourcing strategies. Keep major projects on time and on budget despite persistent macro headwinds.
UNMATCHED EXPERIENCE
Downstream USA will unite over 3,000 industry leaders to share practical insights and cutting-edge solutions to empower the sector to thrive amid growing resource restraints. Attendees can meet with peers and mentors alike in three different learning environments:
Collaborate and compete in hackathons: Work in teams under time constraints and vote for the most effective roadmaps in tackling real-world industry challenges.
Personalized, hands-on guidance in workshops: Participate in intimate, expert-led sessions to develop a personalized action plan for your biggest challenges and achieve industry best practices.
Benchmark and exchange insights at roundtables: Join candid discussions to troubleshoot common challenges and innovative approaches to push the industry forward.
THE SHOWCASE FOR PROVEN SOLUTIONS
As the largest U.S. downstream event, with an established industry legacy now in its fourteenth year, this event is dedicated to solving the most pressing challenges facing refining, petrochemical, specialty chemical, and chemical producers.
Downstream USA is attended by every major A.S. asset owner and their full-site teams—with representation spanning frontline personnel, department leads, and corporate decision makers across reliability, maintenance, turnarounds, capital projects, digitalization, and procurement. This event features proven solutions deployed by industry majors, backed by use case-driven studies and demonstrable ROIs.
UNPARALLELED EXPOSURE TO MAJOR ASSET OWNERS
Downstream USA 2026 will unite the industry’s most influential leaders as they share practical insights at a time when the pressure to digitalize and deliver more with fewer resources has never been greater. Attendees can seize this moment to position their brand as a trusted provider of ROI driven solutions.
Each aspect of this two-day event emphasizes interactive engagement, though leadership, and branding. Here, attendees have the opportunity to deep dive with their customers over problem-solving roundtables, workshops, and intimate networking opportunities. Whether the goal is to deliver thought-leadership and challenge downstream to go beyond business as usual or cut through the noise and gain maximum exposure with popular onsite physical and digital branding, Downstream USA is the place to be.
Vincenzo Salmeri, an international senior executive with nearly thirty years of experience within Schneider Electric, has been appointed as the new president of Current/OS, the independent global nonprofit foundation bringing together manufacturers, technology leaders, and electrical experts to enable the safe and large-scale deployment of direct current (DC) in electrical distribution systems. His appointment marks Current/OS’ transition into a new phase of international development to accelerate the safe, scalable and interoperable adoption of Direct Current.
Salmeri’s appointment comes at a pivotal moment for the energy transition. As electrification accelerates, driven by renewable energy, storage, electric mobility, digital infrastructure and the rapid growth of data centers, DC is emerging as a key enabler of more efficient, flexible and resilient electrical architectures. Current/OS aims to provide the shared rules, reference architectures and interoperability framework needed to make DC systems safe, repeatable and scalable across the market.
Salmeri has held several global and regional leadership roles across Europe and Asia. His career has spanned product management, business development, digital transformation, commercial strategy and the development of international teams and ecosystems.
Enverus announces the acquisition of four exchange platforms from PDS Energy Information: The Frac Interference Exchange, Well Data Exchange, Production Data Exchange and AquaTrade.
Enverus already operates two of the energy industry’s largest commercial exchange networks. EnergyLink and OpenInvoice collectively support more than 500 operators, 40,000 suppliers and 250,000 receivers, representing more than $500 billion in annual transaction activity across revenue, joint interest billing and procurement. With this transaction, Enverus expands from commercial workflows into the operational data flows that drive completions, well data, production and water logistics.
The acquired platforms are operating infrastructure for the U.S. upstream industry. An estimated 80 percent of U.S. completions, production and drilling data is exchanged through the PDS network, connecting nearly 800 participants. The Frac Interference Exchange alone has more than 400 operators.
“PDS built exchange infrastructure that sits inside real work the industry executes every day,” says Manuj Nikhanj, CEO of Enverus. “Adding these platforms to the networks Enverus already operates is a natural step, and it opens up possibilities for customers.”
