Dezurik and Energy West Controls Partner to Enhance Industrial Solutions in The Rocky Mountain Region

Dezurik, a global leader in manufacturing high-quality valves, has formed a new partnership with Energy West Controls, a prominent manufacturer's representative company based in Golden, Colorado. This collaboration aims to strengthen services and support for customers across various industries in the Rocky Mountain region, including water treatment, sewage treatment, water distribution, pulp and paper, oil and gas downstream, petrochemical, mining, power, and hydropower dams.

With over a century of innovation and excellence, Dezurik has become synonymous with reliability and superior performance in critical industrial applications. Founded in the early 20th century, the company has consistently advanced engineering to develop valves that meet the rigorous demands of municipal and industrial processes. Its extensive product line—including butterfly, plug, and check valves—reflects Dezurik's commitment to quality and customer satisfaction across multiple sectors.

Energy West Controls brings a wealth of regional market knowledge and a team of seasoned professionals to the partnership. Specializing in process control and instrumentation, the company has represented top-tier manufacturers for several years. Its customer-centric approach and commitment to excellence align seamlessly with Dezurik's core values.

This partnership promises significant benefits for customers in the region. By leveraging Energy West Controls' strong local presence and Dezurik's extensive product portfolio, the collaboration will provide faster response times, improved technical support, and more accessible inventory. Customers can expect enhanced technical support from local experts who are readily available to provide on-site assistance, supported by Dezurik's engineering team.

A representative based in Golden, Colorado, means customers will have easier access to Dezurik's products and services. The partnership also enables the development of tailored solutions that meet the specific needs of regional clients, ensuring optimal performance and compliance with local regulations across diverse industries.

Looking ahead, Dezurik and Energy West Controls are poised to meaningfully impact the efficiency and reliability of processes in the region's key industries. Their combined expertise positions them to offer unparalleled service and innovative solutions to their customers.

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About Dezurik: Dezurik is a leading manufacturer of high-quality valves for industries including water treatment, sewage treatment, water distribution, pulp and paper, oil and gas downstream, and petrochemical, mining, power, and hydropower dams. With a history spanning over 100 years, the company is dedicated to providing innovative flow control solutions that set the standard for reliability and performance.

About Energy West Controls: Based in Golden, Colorado, Energy West Controls is a premier manufacturer's representative company specializing in process control and instrumentation. The company is committed to excellence and offers expert solutions and support to clients across various industries.

Energy West Controls, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

Industrial Butterfly Valves: Navigating the Differences Between Lug and Wafer Styles

Understanding the differences between lug-style and wafer-style designs in industrial butterfly valves is essential for selecting the correct valve for specific applications. Butterfly valves, known for their compact design and efficiency in regulating flow, come in various types, each suited for different conditions and requirements. Among these, lug-style and wafer-style butterfly valves are two of the most common, each offering distinct advantages based on the application.

Lug-style butterfly valves are characterized by their threaded inserts or lugs, which allow them to be installed between flanges using bolts that connect directly to them. This design enables the valve to be removed from the system without disturbing the surrounding pipework, making it particularly advantageous in systems requiring frequent maintenance or where flow isolation is necessary. Lug-style valves can function as end-of-line valves and  can close against full pressure.

In contrast, wafer-style butterfly valves fit snugly between two flanges, with the flange bolts passing around the valve body. This design does not have threaded inserts, so the valve relies on the tension of the flange bolts to stay in place. Wafer-style valves are more compact and lightweight than their lug-style counterparts, making them an excellent choice for applications with limited space or weight. However, unlike lug-style valves, wafer-style valves do not provide the ability to isolate the downstream line if the valve needs to be removed, which can limit their use in specific systems.

When it comes to performance, both high-performance butterfly valves and resilient-seated butterfly valves offer unique benefits. High-performance butterfly valves, which can be found in both lug and wafer styles, are designed to handle higher pressures and temperatures, making them suitable for demanding applications in industries such as oil and gas, power generation, and petrochemicals. These valves typically feature a double-offset or triple-offset design, which reduces wear and extends the valve’s lifespan by minimizing contact between the disc and seat during operation.

Resilient seated butterfly valves, on the other hand, are more commonly used in applications where lower pressures and temperatures are present. These valves use a flexible rubber seat that provides a tight seal, ensuring reliable operation in systems such as water treatment, HVAC, and general industrial processes.

The choice between lug-style and wafer-style butterfly valves depends mainly on the application's specific requirements, including factors such as maintenance needs, space constraints, and pressure conditions. Both high-performance and resilient seated butterfly valves offer distinct advantages, with the former excelling in high-pressure environments and the latter providing reliable service in less demanding situations. Understanding these differences is critical to selecting the correct valve for any industrial system, and it is crucial for making informed decisions that will ensure the system's optimal performance. Always consult with a valve expert before applying any industrial valve in a service where you unsure of it's applicability.

Energy West, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

Industrial Mixing, Agitation, Blending, Heating, and Aeration: The Role of In-Line/In-Tank Eductors

Industrial in-line/in-tank eductors are specialized devices that facilitate the mixing, agitation, blending, heating, and aeration of liquids within industrial tanks. These devices leverage fluid dynamics principles to create efficient processes without the need for mechanical agitators. Typically, an eductor comprises a nozzle, a throat, and a diffuser. The device operates on the Venturi principle, which utilizes the energy from a high-velocity fluid to entrain and mix a secondary fluid, enhancing the mixing process within the tank.

The operational mechanism of in-line/in-tank eductors begins with the primary fluid being pumped through the nozzle at high pressure. This primary fluid accelerates as it passes through the narrow throat of the eductor, creating a low-pressure zone. This low-pressure area draws the secondary fluid from the surrounding tank through the eductor's openings. As the secondary fluid enters, it mixes with the primary fluid in the throat, where the velocity remains high. The mixed fluids then move through the diffuser, where the velocity decreases, and the pressure recovers. This process thoroughly mixes the tank's contents, as the high-velocity jets of mixed fluids effectively agitate and blend the surrounding liquid.

In-line/in-tank eductors are employed in various industrial applications because they efficiently mix, heat, and aerate large volumes of liquid without moving parts, reducing maintenance requirements but also operational costs, making them a cost-effective solution. They are commonly used in the chemical, pharmaceutical, food and beverage, and wastewater treatment industries. For instance, in chemical processing, eductors ensure uniform mixing of reactants, thereby enhancing reaction rates and product consistency. In the pharmaceutical industry, they maintain homogeneous mixtures, which is crucial for product quality and efficacy. Food and beverage manufacturers use eductors to blend ingredients, ensure uniform flavor distribution, and maintain consistent product quality. Wastewater treatment facilities utilize eductors to keep solids in suspension, promote aerobic conditions, and enhance the overall efficiency of the treatment process.

In-line/in-tank eductors circulate heated fluid throughout the tank for heating applications, ensuring even temperature distribution. This is particularly useful in processes requiring precise temperature control, such as food processing and chemical reactions. The eductors help prevent hot spots and ensure the entire tank reaches the desired temperature uniformly. In aeration applications, eductors introduce air or gas into the liquid, promoting oxygen transfer and maintaining aerobic conditions for biological processes in wastewater treatment and fermentation.

The design of in-line/in-tank eductors offers several advantages, such as energy efficiency, reduced maintenance, and the ability to handle a wide range of viscosities and temperatures. Their compact size and straightforward installation process make them ideal for retrofitting existing systems without significant modifications. Furthermore, eductors are made from various materials, including stainless steel, polypropylene, and PVDF, to accommodate different chemical compatibilities and operating conditions. Engineers consider factors such as tank size, fluid properties, desired mixing patterns, and required turnover rates when selecting an in-tank eductor. Proper sizing and placement of eductors within the tank are crucial for achieving optimal performance. Multiple eductors may be installed in larger tanks to ensure comprehensive mixing throughout the volume.

Jacoby-Tarbox, a division of Clark-Reliance Corporation, has established itself as a leading manufacturer of high-quality In-line/in-tank educators. Their products are renowned for their robust construction, precision engineering, and superior mixing performance. Jacoby-Tarbox offers a variety of in-tank eductor designs for multiple applications, from small process vessels to massive storage tanks. Their eductors feature optimized nozzle and diffuser geometries that maximize efficiency and minimize pressure loss. Jacoby-Tarbox's expertise in fluid dynamics and mixing technology has made their in-line/in-tank eductors a preferred choice for industries seeking reliable and efficient mixing, heating, and aeration solutions.

Energy West, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

Steam Trap Management: An Essential Component of Your Decarbonization Strategy

As we approach the midpoint in 2024, the urgency of decarbonization efforts becomes increasingly clear. Nations and industries are uniting in a global effort to reduce their carbon footprint and combat climate change. Decarbonization, the process of reducing carbon dioxide (CO2) emissions across sectors like energy production, transportation, and industrial processes, is at the forefront of this movement. Governments and companies are investing in renewable energy sources, energy efficiency measures, and carbon capture technologies to lessen their reliance on fossil fuels. While progress has been made, with many countries setting ambitious net-zero emissions targets, the journey to meet the goals of the Paris Agreement and limit global warming to well below 2°C above pre-industrial levels is far from over. The transition to a low-carbon economy is a reality, but it demands ongoing commitment, innovation, and collaboration from all stakeholders to accelerate the pace of change and mitigate the most severe impacts of climate change.

Developing a roadmap to decarbonization tailored to your specific facilities and industry is crucial for several reasons:

1. Unique challenges and opportunities: Each industry and facility has unique challenges and opportunities for reducing carbon emissions. A tailored roadmap considers your operations' specific processes, equipment, and energy requirements, allowing for more targeted and practical solutions.

2. Cost-effectiveness: By creating a customized plan, we ensure that your investment in emissions reduction is maximized. This is particularly important as the transition to a low-carbon economy can be expensive. Our tailored approach prioritizes the most cost-effective strategies for your facility, providing you with the assurance that you are getting the most out of your investment.

3. Compliance with regulations: As governments around the world implement more stringent emissions regulations, a tailored decarbonization roadmap helps ensure that your facility remains compliant, avoiding potential fines and reputational damage.

4. Stakeholder engagement: Developing a specific plan for your facility is about meeting regulations and engaging your stakeholders. By demonstrating your commitment to sustainability and environmental responsibility, you empower your employees, reassure your investors, and attract environmentally conscious customers. This is a powerful way to build trust and strengthen your relationships with your stakeholders.

Steam trap management is a critical step in developing a decarbonization roadmap for several reasons:

1. Energy efficiency: Steam traps are essential for maintaining energy efficiency in steam systems. Malfunctioning steam traps can lead to significant energy losses, increased fuel consumption, and higher carbon emissions. Facilities can reduce their energy waste and improve overall system efficiency by properly managing and maintaining steam traps.

2. Cost savings: Efficient steam trap management can lead to substantial cost savings by reducing energy consumption and minimizing the need for costly repairs or replacements of damaged equipment.

3. System performance: Steam traps are crucial in removing condensate, air, and non-condensable gases from the steam system. Failure to effectively manage steam traps can lead to decreased system performance, reduced heat transfer efficiency, and potential damage to equipment.

4. Safety and reliability: Properly functioning steam traps are essential for maintaining a safe and reliable steam system. Malfunctioning traps can cause water hammer, leading to equipment damage and potential safety hazards for personnel.

By incorporating steam trap management into your decarbonization roadmap, you can identify opportunities for improved energy efficiency, cost savings, and reduced carbon emissions. This step contributes to a more comprehensive and effective strategy for achieving your facility's sustainability goals.

Energy West, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

Unlocking Success: The Crucial Role of Sales Engineers in Industrial Instrumentation and Valve Selection

Industrial process control instrumentation and valves are pivotal in maintaining the smooth operation, efficiency, and safety of various manufacturing processes. In this context, the role of experienced industrial Sales Engineers is unique and indispensable. Their involvement in specifying, selecting, and applying these critical components can bring numerous benefits and streamline the entire process.

First and foremost, Sales Engineers possess in-depth knowledge of the latest technologies, product offerings, and industry best practices. They undergo extensive training and gain hands-on experience with various industrial instrumentation and valve solutions. This expertise allows them to provide valuable insights and recommendations tailored to specific application requirements. By leveraging their knowledge, engineers and project managers can make informed decisions, ensuring the selection of the most suitable and cost-effective components for their projects.

Furthermore, Sales Engineers are not just intermediaries between the customer and the manufacturer. They take a proactive approach in understanding the customer's needs, challenges, and objectives, and then translate them into actionable solutions. This close collaboration allows Sales Engineers to guide customers through the complex landscape of industrial instrumentation and valves, offering advice on product specifications, compatibility, and integration with existing systems. This consultative approach empowers customers to optimize their processes, enhance efficiency, and achieve their desired outcomes.

In addition to their technical expertise, Sales Engineers provide valuable support throughout the project lifecycle. They assist in the initial design and specification phase, offering recommendations on instrument and valve sizing, construction materials, and performance characteristics. As the project progresses, Sales Engineers remain actively involved, providing technical support, troubleshooting assistance, and seamless integration with other system components. Their commitment to customer success extends beyond the initial sale, as they often provide ongoing support and after-sales service.

Another significant advantage of working with Sales Engineers is their ability to facilitate effective communication and coordination among various stakeholders. Industrial projects often involve multiple departments, contractors, and suppliers, each with priorities and requirements. Sales Engineers act as a central point of contact, fostering collaboration and ensuring all parties align towards a common goal. They help bridge the gap between technical and non-technical stakeholders, translating complex concepts into easily understandable terms and facilitating productive discussions.

Furthermore, Sales Engineers keep abreast of the latest industry standards, regulations, and compliance requirements. They can guide the selection of instrumentation and valves that meet stringent safety, environmental, and performance standards. Engineers can avoid costly rework, delays, and potential legal issues by ensuring compliance from the outset. Sales Engineers' expertise in navigating regulatory landscapes helps mitigate risks and ensures that projects adhere to the necessary standards and best practices.

Lastly, the partnership with Sales Engineers is not just a one-time transaction. It can lead to long-term benefits and strategic alliances. As trusted advisors, Sales Engineers develop a deep understanding of their customers' businesses, processes, and future goals. This in-depth knowledge enables them to proactively identify opportunities for improvement, propose innovative solutions, and align their offerings with the customer's evolving needs. By fostering strong relationships built on trust and mutual success, Sales Engineers become valuable assets, contributing to the overall growth and competitiveness of their customers' operations.

Working with industrial Sales Engineers when specifying, selecting, and applying industrial process control instrumentation and industrial valves is highly beneficial and essential. Their technical expertise, industry knowledge, and commitment to customer success make them invaluable partners in optimizing processes, improving efficiency, and achieving project objectives. By leveraging the skills and support of Sales Engineers, engineers and project managers can confidently navigate the complexities of industrial instrumentation and valves, ultimately driving the success of their projects and organizations.

Energy West, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

Smart Valves, 3D Printing, and Digital Twins: Revolutionizing Industrial Valve Automation

Three significant technological advances may revolutionize the future of industrial valves and valve automation in various markets. These advancements aim to improve efficiency, reliability, and sustainability in industries such as oil and gas, chemical processing, and water treatment.

1. Smart Valves and Predictive Maintenance: Integrating smart sensors and artificial intelligence (AI) is one of industrial valves' most influential technological advances. Manufacturers equip smart valves with sensors that continuously monitor various parameters, such as pressure, temperature, and flow rate. AI algorithms analyze the data collected by these sensors, detecting anomalies and predicting potential valve failures before they occur. This predictive maintenance approach allows timely repairs and replacements, minimizes downtime, and increases system reliability. Industries such as oil and gas, where unplanned shutdowns can be extremely costly, are already adopting smart valve technology to optimize their operations and reduce maintenance costs.
2. 3D Printing and Advanced Materials: 3D printing technology is transforming the manufacturing of industrial valves. With 3D printing, manufacturers can produce valve components quickly and cost-effectively, reducing lead times and inventory costs. Additionally, 3D printing enables the creation of complex valve geometries that were previously impossible to manufacture using traditional methods. This innovation allows for the development of valves with improved flow characteristics, reduced pressure drop, and enhanced performance. Furthermore, manufacturers increasingly use advanced materials, such as high-performance polymers and ceramic matrix composites, in valve manufacturing. These materials offer superior resistance to corrosion, high temperatures, and wear, making them ideal for demanding applications in the chemical processing and power generation industries.
3. Digital Twin Technology and Virtual Commissioning: Digital twin technology is another game-changer in industrial valves and valve automation. Engineers create a digital twin, a virtual replica of a physical valve system, using real-time sensors and historical performance data. This technology allows for the simulation and optimization of valve performance under various operating conditions without physical testing. Using digital twins, engineers can identify potential issues, test different control strategies, and optimize valve settings for maximum efficiency. Virtual commissioning, which involves testing and validating control systems using digital twins, is becoming increasingly popular in the water treatment and pharmaceutical industries. This approach reduces the time and cost associated with physical commissioning and ensures that the valve system performs as expected from the outset.

Smart valves, 3D printing, advanced materials, digital twin technology, and virtual commissioning are leading the way in the bright future of industrial valves and valve automation. These technological advances will transform various markets, improving efficiency, reliability, and sustainability. As industries continue to embrace these innovations, we expect significant improvements in valve performance, reduced maintenance costs, and increased overall system reliability. Companies looking to stay competitive in an ever-evolving industrial landscape will find adopting these technologies crucial.

Energy West, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

Thermoplastic Valves for Industry

Thermoplastic valves, like those manufactured by Asahi America, play a crucial role in various industrial processes due to their unique properties and advantages. These valves, known for their durability, corrosion resistance, and versatility, are essential in industries where the control of fluids and gases is a critical component. The significance of thermoplastic valves stems from their ability to handle a wide range of chemicals without degradation, which is paramount in sectors like chemical processing, water and wastewater treatment, and semiconductor manufacturing. In the chemical processing industry, handling aggressive and corrosive substances is a routine task. Under such conditions, metal valves often succumb to corrosion, leading to frequent replacements and increased downtime. Thermoplastic valves, on the other hand, offer excellent resistance to a wide array of chemicals, ensuring a longer service life and reducing maintenance costs. This resistance also ensures the purity of processed chemicals, a critical factor in this industry. Asahi America's valves, for instance, are known for their reliability in these harsh environments, making them a preferred choice for many chemical processing plants.

The water and wastewater treatment industry also greatly benefits from using thermoplastic valves. These facilities deal with various chemicals used in the treatment process, such as chlorine and sulfuric acid. The corrosion-resistant nature of thermoplastic valves ensures that they can withstand these substances, maintaining their functionality over long periods. Furthermore, the lightweight nature of these valves, compared to traditional metal ones, allows for easier installation and handling, which is particularly beneficial in large-scale water treatment plants with numerous valves.

Another critical industry that relies heavily on thermoplastic valves is semiconductor manufacturing. This sector requires exceptionally high levels of purity and precision in handling various process gases and chemicals. Even the slightest contamination can lead to defects in semiconductor chips, resulting in significant financial losses. Thermoplastic valves offer the necessary chemical resistance and do not leach contaminants into the flow media, making them ideal for use in the ultra-clean environments required for semiconductor fabrication.

The pharmaceutical industry also finds thermoplastic valves indispensable. The production of pharmaceuticals often involves aggressive chemicals and the need for sterile conditions. Thermoplastic valves resist corrosion from these chemicals and are easy to clean and sterilize, maintaining the hygiene standards required in pharmaceutical manufacturing.

Thermoplastic valves, such as those produced by Asahi America, are essential in industries where chemical resistance, durability, and purity are paramount. Their role in chemical processing, water and wastewater treatment, semiconductor manufacturing, and pharmaceuticals highlights their versatility and critical role in maintaining the efficiency, safety, and reliability of industrial processes. The ongoing advancements in manufacturing these valves will continue to enhance their performance and expand their applications in various industries, underscoring their importance in the industrial world.

For more information about thermoplastic valves, contact     :

Energy West, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

2024 Industrial Valve Technology Predictions

The industrial valve automation sector tends to have gradual advancements focusing on efficiency, reliability, digital integration, and predictive maintenance rather than rapid, groundbreaking changes. It's safe to expect upgrades related to increased connectivity and IoT integration, further automation with AI and machine learning, more robust and adaptive control systems, enhanced material technologies for valves to improve durability and efficiency, and perhaps more significant emphasis on sustainability and energy efficiency within systems.

Here are some predictions for 2024:

• The Rise of Intelligent Valves: 

Enhanced with IoT integration, valves will self-regulate and adjust to varying conditions, offering remote diagnostics and improved system efficiency.

• 3D Printing for Tailored Valve Solutions: 

Precision and flexibility in valve manufacturing will be enhanced through 3D printing, allowing for custom designs and reduced production waste.

• Transition to Non-metallic Valves: 

Ceramics, composites, and specialized polymers will increasingly replace metals, offering corrosion resistance and lightweight properties.

• Revolutionary Sealing Mechanisms: 

Upgrades to sealing materials and mechanisms will improve valves' longevity, reliability, and maintenance.

• Valves in Renewable Energy Systems: 

Specialized valves will become crucial in optimizing energy flows in renewable energy systems designed to withstand extreme conditions and support sustainable energy infrastructure.

Though traditionally slow to evolve, industrial valves stand to gain significantly from AI and advanced monitoring technologies. AI's predictive capabilities can forecast maintenance needs and optimize performance, reducing downtime and extending valve life. Meanwhile, monitoring technologies provide real-time data on valve conditions, allowing immediate adjustments to improve efficiency and safety. Together, these innovations promise a future where even the most steadfast industrial components, like valves, become part of a more innovative, responsive industrial ecosystem. 

Energy West Controls
https://energy-west.com
800-533-4477

 

What are Valve Positioners?

Valve positioners are critical components in industrial process control, ensuring accurate and efficient fluid flow control in various systems. Here's an overview of what they are and the role they play:

• Definition: A valve positioner is a device used to control the positioning of a valve's actuator. It's an attachment to the valve actuator that ensures the valve reaches the correct position as the control system demands.
• Types: There are several valve positioners, including pneumatic, electro-pneumatic, and digital or smart positioners. The choice depends on the specific requirements of the process and the operating environment.
• Components: A typical valve positioner includes a feedback mechanism, a controller, and a means to actuate the valve. It receives a control signal (usually pneumatic or electrical) and manipulates the actuator to open or close the valve accordingly.

Role in Industrial Process Control

• Accuracy and Precision: Valve positioners ensure that the valve accurately reaches the desired position as determined by the control signal, which is essential for maintaining precise control over process variables like flow rate, pressure, or temperature.
• Compensating for Variabilities: They help compensate for external factors affecting valve operation, such as friction, pressure changes, or wear and tear, ensuring consistent performance over time.
• Improved Control Dynamics: By providing faster and more accurate responses to control signals, positioners enhance the overall dynamics of the control loop to improve process stability and efficiency.
• Facilitating Remote Control and Monitoring: Particularly with smart or digital positioners, they enable remote operation and monitoring of valves, integrating with modern control systems for better process management.
• Energy Efficiency: By ensuring valves operate as needed and to the exact required extent, positioners can help reduce energy consumption.
• Safety: In critical applications, they contribute to safety by ensuring valves respond correctly to emergency shut-down signals or other safety-related controls.

In summary, valve positioners are essential for enhancing industrial control systems' performance, efficiency, and reliability. They are vital in ensuring that the valves, the final control elements in many processes, operate as intended, thereby maintaining the desired control.

Valve Accessories and Controls (VAC) Positioners

Since its inception, VAC has consistently prioritized a customer-first approach in its business dealings. The company's range of quality positioner products features the straightforward V100, the adaptable V200, and the digital D400 and D500 models. These solidly built, designed positioners represent the beginning of the Valve Accessories and Controls narrative. VAC prides itself on a customer-oriented team dedicated to assisting you in selecting the ideal positioner for your needs, ensuring a hassle-free experience without the confusion of navigating through extensive phone directories and extensions. The combination of competitive pricing and exceptional service distinguishes VAC from its competitors.

Energy West Controls
https://energy-west.com
800-533-4477

Navigating Industrial Steam Traps: The Value of Expert Surveying

Steam systems are integral to the operations of various industries, from power generation to petrochemicals, pharmaceuticals, mining, oil & gas, and pulp and paper mills. A critical component of steam systems is the steam trap—a device designed to remove condensate, air, and other non-condensable gases from the steam system without letting steam escape. Like every mechanical system, steam traps require regular monitoring to ensure they function optimally, which is where steam trap surveys come into play.

What are Steam Trap Surveys?

A steam trap survey systematically inspects and tests all steam traps in a facility to assess their condition and performance. These surveys involve:

1. Identification: Each trap is located and tagged to keep track of its status.
2. Testing: Various techniques, such as ultrasound, temperature measurement, and visual inspection, are used to determine if the steam trap is working correctly.
3. Documentation: Data on the functioning status (e.g., failed open, failed closed, working correctly) and other relevant information about each trap are documented for analysis and future reference.
4. Analysis & Recommendations: After the survey, the data is analyzed to determine the overall health of the steam system, and recommendations are made for repairs or replacements.

Why are Steam Trap Surveys Important?

Energy Conservation: A malfunctioning steam trap can allow steam to escape, leading to energy wastage. Ensuring all steam traps work efficiently helps conserve energy and reduces operating costs.

1. Increased System Efficiency: A failed steam trap can cause water hammer, reduced heat transfer efficiency, and other issues that can negatively impact system performance.
2. Safety: Steam system malfunctions can pose safety risks. Regularly checking steam traps helps identify and rectify potential hazards before they escalate.
3. Prolonged Equipment Life: Regular maintenance, including issues found in steam trap surveys, can extend the life of the equipment, reducing long-term capital expenditure.
4. Environmental Impact: With the global emphasis on reducing carbon footprints, energy-efficient operations, including efficient steam systems, contribute to lowered greenhouse gas emissions.

The Importance of Hiring Experienced Contractors

While understanding the need for steam trap surveys is crucial, it's equally important to recognize the value of expertise in conducting these assessments.Thorough Inspection: Experienced contractors know how to navigate complex industrial settings and ensure no trap is overlooked during the survey.

1. Accuracy: With expertise comes precision. Professionals use advanced techniques and equipment to gauge steam trap functionality accurately.
2. Tailored Recommendations: Experienced surveyors can provide tailored solutions based on the unique needs of a plant, leading to optimal system performance.
3. Cost Savings: Although there's an upfront cost associated with hiring experts, the long-term savings due to enhanced system efficiency, reduced energy wastage, and decreased equipment replacement costs make it a worthy investment.
4. Peace of Mind: Knowing that seasoned professionals are handling the health of your steam system gives peace of mind that every detail will be addressed.

Conclusion

Industrial steam trap surveys are essential to maintaining a steam system's efficiency, safety, and longevity. They lead to energy conservation and cost savings and play a vital role in ensuring smooth operations. Hiring an experienced contractor to undertake this task ensures that the survey has the highest expertise and precision, setting the foundation for an efficient and safe steam system.

Energy West Controls
https://energy-west.com
800-533-4477

Zero-Emission, Failsafe, Emergency Shutdown (ESD) Valve Actuator Systems

The oil and gas industry has evolved significantly, with a heightened focus on environmental protection and safety. An essential component to safely transferring oil and gas via pipeline is the zero-emission, failsafe emergency shutdown (ESD) valve actuator.

ESD valve actuator systems halt the flow of hazardous fluids or gases when abnormal operating conditions arise. This quick intervention is essential to prevent catastrophic failures, leaks, and explosions. Two main features define these systems: their "zero emission" capacity and "failsafe" functionality. The former ensures the actuator does not contribute harmful emissions to the environment, and the latter ensures that the system automatically reverts to a safe mode in case of a malfunction.

These systems incorporate a sealed design that prevents the escape of hazardous gases to achieve the zero-emissions objective. This design includes high-quality seals and components that leave no room for weak points where emissions might potentially escape. Additionally, many of the latest actuators have monitoring systems looking for possible leaks or system failures. The system can alarm or begin the necessary shutdown procedures if such an issue arises.

Failsafe mechanisms are critically important. A spring return mechanism is one of the primary ways this is achieved. Suppose there's a power loss or a system malfunction. In that case, the spring propels the valve to its designated safe position, which could be either fully open or fully closed, based on the specific application. Additionally, some actuators are designed with secondary power sources, like batteries or reserves of compressed gas, ensuring they remain operational even when the primary power source is compromised. These actuators can promptly recognize operational irregularities and anomalies when coupled with intelligent control systems. Once detected, the system, adhering to predefined parameters, can call on whether to shut down the valve, sound alarms, or take other necessary protective measures.

For several reasons, the introduction and widespread adoption of these advanced ESD valve actuator systems are crucial for pipeline distribution networks. Environmentally, they help mitigate leaks in midstream pipelines, which, if unchecked, could lead to substantial ecological damage, especially if hazardous gases or liquids find their way into the ground or water sources. Another environmental benefit is in the fight against climate change. Methane, frequently found in natural gas, is a potent greenhouse gas. By guaranteeing zero emissions, these actuators significantly reduce the release of methane into our atmosphere.

From a safety perspective, the fast-acting nature of ESD actuators ensures that the flow of potentially flammable substances can be quickly shut down, minimizing the risk of fires or explosions. 

Furthermore, with tightening regulations across numerous jurisdictions regarding emissions and safety standards in the oil and gas sector, these zero-emission, failsafe ESD valve actuators have become the gold standard, assisting companies in complying with the stringent rules, not only preventing significant financial penalties but also circumvents potential operational halts.

As the oil and gas industry marches forward, addressing ever-present environmental and safety challenges, the zero-emission failsafe ESD valve actuator systems protect the environment and pipeline operators from the consequences of failures, ensuring public and environmental security and demonstrating a commitment to responsible and sustainable operations.

For more information, contact:

Energy West, Inc.
1955 West Industrial Circle
Salt Lake City, Utah 84104
Phone: 801-262-4477
Fax: 801-261-0862
Web: https://energy-west.com

"Intrusive" and "Non-Intrusive" Industrial Electric Actuators

Industrial electric actuators play a pivotal role in automating various industrial processes. These actuators convert electrical energy into mechanical motion to control or move machinery components such as valves and dampers. Regarding "intrusive" and "non-intrusive" in industrial electric actuators, the terms typically address the design and mode of operation, particularly the setup, monitoring, and control aspects. 

Here's a detailed breakdown of the differences:

Design & Configuration:

Intrusive Actuators: These actuators generally require users to open or intrude into the actuator casing or cover for setup, adjustment, or monitoring, meaning the internal components can be exposed to external environments, potentially compromising the actuator's integrity or operation.

Non-Intrusive Actuators: These actuators allow setup, adjustments, and monitoring without physically intruding or opening the actuator's casing, ensuring the internal components remain sealed and protected from external contaminants or potential damage.

Operation & Monitoring:

Intrusive Actuators: Adjustments or calibration typically require direct interaction with internal components, which can be time-consuming and may expose the system to errors or contamination.

Non-Intrusive Actuators: They often come with user interfaces, like LCD touchscreens or push buttons on the exterior, allowing operators to perform setup, calibration, or monitoring without exposing the internal components. Some might even have remote interfaces, facilitating monitoring and control from a distance.

Safety & Maintenance:

Intrusive Actuators: The need to open the actuator for adjustments or monitoring can introduce safety risks, mainly if the actuator is operating in environments with hazardous gases, liquids, or materials. Additionally, maintenance can be more challenging as exposing the internals might allow contaminants to compromise the system.

Non-Intrusive Actuators: These actuators provide a safer operation, especially in hazardous environments, as there's no need to open the casing. Their design also reduces maintenance challenges and improves the actuator's longevity.

Applications:

Intrusive Actuators: Might be used in applications where regular adjustments aren't required or in environments where exposure risks are minimal.

Non-Intrusive Actuators: Ideal for industries where the actuator's environment has contaminants or hazardous materials or where frequent adjustments or monitoring is essential without compromising safety.

Cost:

Intrusive Actuators: They might be less expensive initially because they have a more straightforward design without the external interface components. However, potential increased maintenance costs or reduced longevity might offset the initial savings.

Non-Intrusive Actuators: While they might have a higher initial cost due to their advanced design and user interfaces, they can result in savings in the long run due to reduced maintenance needs and extended operational life.

In summary, the primary distinction between intrusive and non-intrusive industrial electric actuators lies in their design and interaction mode. While intrusive actuators require direct access to internal components for setup and monitoring, non-intrusive variants enable these operations without opening the actuator casing and offering increased safety and operational advantages.

Energy-West Controls

https://energy-west.com

801-262-4477

Capitalizing on Hidden Assets: The Significant Energy Potential in Waste Heat with Armstrong International Circular Thermal℠

The first law of thermodynamics states that energy is neither created nor destroyed, maintaining a constant quantity in a system. When energy is utilized, often through conversion, it degrades into a lower quality form. This begs the question: how does degraded yet undestroyed energy exit an industrial plant?

Waste heat, while being of lower quality, retains a significant quantity of energy. Studies indicate that 50 to 80% of primary energy used in light industries becomes waste heat at medium or low temperatures when leaving the plant. Thus, up to 80% of this energy is recyclable.

By incorporating Armstrong International's  Circular Thermal℠ model into industrial processes, we can recapture and reuse this waste energy.

For more information about Armstrong International products, and their Circular Thermal℠ technology, contact Energy West Controls. Call 800-533-4477 or visit https://energy-west.com.