Enhancing Craft Beer Quality with High-Quality Measurement Solutions

Enhancing Craft Beer Quality with High-Quality Measurement Solutions

Craft brewing has experienced a significant surge in popularity over the past decade, with consumers increasingly seeking unique and high-quality beer experiences. Craft breweries must closely monitor and control various parameters throughout the brewing process to ensure consistent product quality and flavor profiles. The most critical measurements are pH, dissolved oxygen, dissolved CO2, gaseous oxygen, conductivity, and turbidity. By investing in high-quality instruments for these measurements, craft breweries can positively impact their product quality and maintain a competitive edge in the market.

1. pH Measurement:

pH plays a crucial role in the brewing process, as it affects enzyme activity, yeast health, and the overall flavor and stability of the final product. Accurate pH measurement is essential during mashing, as the optimal pH range (5.2-5.6) ensures efficient starch conversion and extraction of fermentable sugars. During fermentation, yeast activity can cause pH shifts, which need monitoring to prevent off-flavors and ensure consistent fermentation. High-quality pH meters with automatic temperature compensation and calibration capabilities help brewers maintain tight control over pH levels, resulting in better product consistency and quality.

2. Dissolved Oxygen (DO) Measurement:

Oxygen plays a vital role in yeast health and fermentation, but excessive oxygen exposure can lead to oxidation and the development of stale, cardboard-like flavors in the finished beer. Measuring dissolved oxygen levels at various stages of the brewing process, particularly before and after fermentation, helps brewers ensure that their beer is not over-exposed to oxygen. High-quality DO meters with fast response times and minimal drift provide accurate and reliable measurements, allowing brewers to make informed decisions about oxygen management and prevent oxidation-related quality issues.

3. Dissolved CO2 Measurement:

Dissolved carbon dioxide (CO2) is responsible for beer's carbonation and mouthfeel. Accurate measurement of dissolved CO2 helps brewers achieve the desired level of carbonation for each beer style and maintain consistency across batches. High-quality dissolved CO2 meters with automatic pressure and temperature compensation provide precise measurements, enabling brewers to fine-tune their carbonation levels and ensure that their beers balance bubbles and creaminess.

4. Gaseous Oxygen Measurement:

In addition to dissolved oxygen, monitoring gaseous oxygen levels in the headspace of fermentation tanks and packaging lines is critical for preventing oxidation and ensuring beer quality. High-quality gaseous oxygen analyzers with low detection limits and fast response times allow brewers to quickly identify and address any oxygen ingress issues, minimizing the risk of oxidation and preserving their beers' freshness and flavor stability.

5. Conductivity Measurement:

Conductivity measures the total dissolved solids in water, which can impact beer's flavor, mouthfeel, and stability. Monitoring conductivity during brewing helps brewers ensure that their water chemistry is consistent and appropriate for each beer style. High-quality conductivity meters with automatic temperature compensation and wide measurement ranges provide accurate and reliable measurements, enabling brewers to decide about water treatment and ingredient additions.

6. Turbidity Measurement:

Turbidity, or beer's cloudiness, is an essential quality parameter that affects the final product's appearance and perceived quality. While some beer styles, such as hefeweizens, are intentionally cloudy, most beers are clear and haze-free. High-quality turbidity meters with low detection limits and good repeatability allow brewers to monitor the clarity of their beers throughout the brewing process and make necessary adjustments to ensure that their beers meet customer expectations for appearance and quality.

Investing in high-quality instruments for pH, dissolved oxygen, dissolved CO2, gaseous oxygen, conductivity, and turbidity measurements is crucial for craft breweries seeking to produce consistently high-quality beers. By accurately monitoring and controlling these critical parameters, brewers can optimize their processes, prevent quality issues, and deliver exceptional beer experiences to their customers. As the craft brewing industry continues to grow and evolve, those breweries that prioritize quality and invest in reliable measurement solutions will be well-positioned to succeed in an increasingly competitive market.

Process Technology, Inc.

Duckbill Check Valves

Duckbill Check Valves

Duckbill check valves allow flow in only one direction through a pipe or tube while preventing any backflow in the opposite direction. When fluid pressure is applied from the upstream side, the duckbill flexes open to allow flow. But if pressure comes from the downstream side, the duckbill flaps seal shut to block reverse flow.

Typical applications for duckbill check valves include:

  • Preventing sewer and septic tank backflow
  • Inline pump protection
  • Sprinkler and irrigation systems
  • Drainage and flood control

Duckbill valves' simple, passive operation offers reliable backflow prevention without needing manual intervention, a power source, or maintenance. The elastomeric duckbill is the only moving part. Its flexing action allows it to seal around solids, making it resistant to clogging compared to other check valve designs with hinge mechanisms that can jam.

Duckbill valves find wide use across industrial, municipal, and commercial sectors due to their simple and reliable operation, compact size, and low cost compared to mechanical check valves. Some of the most common applications include:

  • Wastewater and stormwater management: Duckbill valves are extensively used in sewer lines, septic systems, and stormwater outfalls to prevent backflow of contaminated water during heavy rains or floods. They are less prone to clogging than flap valves.
  • Irrigation and agriculture: In sprinkler systems and agricultural pipelines, duckbill valves maintain consistent flow direction and prevent pump prime loss. They also inhibit dirt, rodents, or other foreign materials from entering pipes.
  • Marine and aquatic systems: Duckbill valves are used in boat bilge pump discharge lines, live fish holding tanks, and pond aeration systems. Their unobtrusive profile minimizes flow restrictions.
  • Industrial processes: In chemical processing, printing, and manufacturing operations, duckbill valves control gases and liquids, vent tanks and pipelines, and isolate pressure gauges and instruments.

Compared to traditional swing check valves or spring-loaded poppet valves, duckbill valves offer several advantages:

  1. No mechanical hinge or spring to fail or wear out, giving them superior reliability and service life.
  2. Low cracking pressure and high flow rate due to streamlined design.
  3. Tight sealing even around suspended solids and minimal leakage.
  4. A simple one-piece elastomer duckbill is inexpensive to manufacture and easy to replace.
  5. Various elastomer choices to suit corrosive chemicals, high temperatures, or food grade needs.

Duckbill check valves' versatility, dependability, and low maintenance requirements make them a popular choice across diverse industries for providing economical, trouble-free backflow prevention and fluid control. While not suited for every application, they offer an elegant solution in many common fluid handling scenarios. 

Process Technology, Inc.

Siemens and Partners Launch Industrial Metaverse at CES 2024: Transforming Manufacturing and Infrastructure

Siemens and Partners Launch Industrial Metaverse at CES 2024: Transforming Manufacturing and Infrastructure

The Consumer Electronics Show (CES), held annually in January at the Las Vegas Convention Center, is a prominent event showcasing the latest in consumer electronics, featuring innovative gadgets and cutting-edge technology across various tech sectors.

The inaugural day of CES 2024 marks the debut of the eagerly awaited 'Industrial Metaverse,' a project from a significant partnership among major technology companies such as Nvidia, Microsoft, AWS, Sony, and Siemens. This consortium thinks that the Metaverse's most considerable promise is not within the gaming sector but in critical economic sectors like manufacturing, infrastructure, and transportation.

Siemens, a leader in industrial technology, defines the "Industrial Metaverse" as a groundbreaking fusion of digital and physical industrial processes. This concept extends beyond the traditional boundaries of virtual reality and digital twins, creating a comprehensive, interconnected digital ecosystem that mirrors and enhances real-world industrial environments.

The promise and potential of the Industrial Metaverse for the United States industrial markets are vast. It offers an immersive design, simulation, and collaboration platform, revolutionizing how we approach manufacturing, infrastructure development, and transportation systems. Integrating AI, IoT, and advanced analytics enables the Industrial Metaverse to optimize operations, enhance productivity, and foster innovation.

In this Metaverse, predictive maintenance and real-time monitoring become more efficient, reducing downtime and increasing productivity. The collaborative aspect of the Metaverse allows for seamless integration of supply chains, enhancing coordination and lowering costs. Furthermore, it offers an unparalleled training and skill development platform, leveraging virtual environments for safe and effective learning.

The Industrial Metaverse will transform the landscape of American industry, leading to more intelligent, sustainable, and highly efficient operational models. It's not just a technological leap; it's a gateway to a new era of industrial revolution.

Process Technology, Inc.

Predictions for Process Control Instrumentation in 2024

Predictions for Process Control Instrumentation in 2024

Here are some leading technology predictions for the direction and focus of process control instrumentation in 2024:

  • Remote Monitoring and Control Solutions:
The continued adoption of remote monitoring and control solutions through new software technologies will enable earlier detection of performance issues in process control systems, sending early warnings and diagnostic reports to facilitate quicker response times and improve operational flexibility​​. 
  • Artificial Intelligence (AI) and Machine Learning:
AI and machine learning will revolutionize process control by enabling systems to learn and adapt autonomously. Advanced algorithms will analyze vast data to identify patterns, anomalies, and optimization opportunities. Tools will optimize PID control loops on the fly, improving efficiency and reducing downtime without intrusive plant step-tests​​. 
  • Edge Computing:
Edge computing is a distributed computing paradigm that brings data processing closer to the data source or "edge" of the network. Edge computing will become more prevalent in process control, bringing data processing closer to the start of data generation, reducing latency, and improving system response times, which is particularly valuable in industries where milliseconds can make a significant difference, like robotics and high-speed manufacturing​​. 
  • Cybersecurity Measures:
As process control systems become more interconnected and reliant on advanced technologies, robust cybersecurity measures will be paramount. Investments in encryption, intrusion detection systems, and comprehensive employee training programs will increase to protect sensitive industrial control systems from cyberattacks​​. 
  • Sustainability and Energy Efficiency:
Sustainability concerns will continue driving advancements in process control technology. Advanced control algorithms will optimize energy usage, and real-time monitoring will help identify areas for improvement in energy consumption and resource utilization. This focus on sustainability will lead to more energy-efficient operations and reduced environmental impact​​.

These predictions indicate a significant shift towards more intelligent, secure, and sustainable process control environments. As these technologies develop and integrate, they will offer new opportunities for optimization, collaboration, and protection in various industrial sectors.

Process Technology, Inc.

What Are Temperature Control Valves and Temperature Regulators?

What Are Temperature Control Valves and Temperature Regulators?

Temperature control valves and temperature regulators, often known as TCVs, actively maintain the temperature of a process. They achieve this by regulating the pressure or flow of thermal fluid in various components such as compressors, tank jackets, and heating coils. These devices are essential in processes requiring stable temperatures unaffected by fluctuations in the surrounding environment.

Temperature regulators fall into two main categories: self-actuated and externally actuated. Self-actuated temperature regulators operate independently without the need for an external power source. They use a thermally sensitive material that expands and contracts in response to temperature changes. This expansion and contraction drive the actuator, adjusting the valve's position and altering the flow path of the thermal fluid toward the heating element. This mechanical actuation provides precise temperature control, particularly suitable for applications where the setpoint remains constant and does not require frequent adjustments. Additionally, self-actuated temperature regulators offer a cost-effective solution for effective temperature management. These regulators are also known as self-operated temperature regulators.

Externally actuated temperature control valves often play a critical role in complex control systems, integrating an external temperature sensor and a Proportional-Integral-Derivative (PID) controller. These valves necessitate an external power source for operation. In a typical setup, the operator sets a desired temperature on the PID controller, continuously receiving feedback from the temperature sensor monitoring the process. The PID controller then compares the set temperature with the actual process temperature reported by the sensor. Based on this comparison, it sends an electronic or pneumatic signal to the temperature control valve, instructing it to adjust its position. This adjustment ensures the maintenance of the process temperature at the set point. This type of valve is beneficial in applications requiring frequent adjustments of temperature set points for automation purposes.

How Does the Jordan Valve Mark 80 Series Temperature Regulator Function?

The Jordan Valve Mark 80 Series Temperature Regulator operates independently, eliminating the need for an external power source or costly additional instruments. This self-sufficiency is due to its unique design: the actuator connects to a sensing bulb via a capillary system containing a volatile fluid. When this fluid heats up, it vaporizes, creating pressure within the system. This pressure acts on the diaphragm, prompting the valve to open (in reverse-acting models) or close (in direct-acting models). The Mark 80 Series, featuring a seal welded actuator (SWA), results from extensive research, ensuring the most accurate temperature control. When paired with Jordan Valve's sliding gate valve technology, the Mark 80 regulator achieves superior control. For added versatility, it allows field adjustments of the set point and can accommodate different temperature ranges without removing the valve from its installation.

The Jordan Valve Temperature Regulator Series also presents various self-operated regulator configurations to cater to higher flows, fail-open or fail-close settings, tracing lines, and pilot operations.

Process Technology, Inc.

From Raw Materials to Finished Goods: The Pivotal Role of Process Weighing

From Raw Materials to Finished Goods: The Pivotal Role of Process Weighing

Process weighing plays a pivotal role in industrial applications and manufacturing. It forms the backbone of many production processes, ensuring products adhere to specific quality and safety standards. In industries where precision is crucial, minor discrepancies in weight can significantly impact product quality, safety, and efficiency.

There are two main types of process weighing: continuous weighing and static weighing.

Continuous weighing tracks materials as they flow or move continuously through a system. This approach is common in bulk material handling applications, such as food and beverage or chemical industries, where raw materials flow non-stop through a production line. Continuous weighing ensures that materials remain consistent in quantity and quality throughout production.

On the other hand, static weighing pertains to weighing stationary items used when goods need to be checked or verified against a set weight or standard. For example, in packaging applications, static weighing can ensure that packages contain the correct amount of product before shipping to consumers.

Batching technology complements these weighing methods by ensuring that raw materials or products are grouped in specific, predetermined quantities. Batching provides the correct proportion of each component in industries where products are mixed from various ingredients, leading to consistent product quality. It's an integral process, particularly in the food and pharmaceutical industries, where accuracy and consistency can be a matter of health and safety.

Siemens industrial weighing systems stands out as an excellent choice for these technologies. They offer a combination of precision, durability, and advanced technology, making them ideal for a wide range of industrial applications. Siemens has a history of innovation and reliability, which means their weighing systems come with the assurance of high-quality engineering and robust performance. Their systems integrate seamlessly into existing production environments, and they offer versatile solutions tailored to meet each application's unique demands. Moreover, with the support of Siemens' global service network, businesses can rely on expert assistance and timely maintenance.

Process weighing in industrial applications is a critical process variable. It guarantees the quality, safety, and efficiency of products. And with the technological prowess of Siemens industrial weighing systems, industries can achieve the precision and reliability they need to excel in today's competitive market.

Process Technology, Inc.

PTI and Siemens Process Instrumentation: A Strategic Alliance Driving Dynamic Growth for Industries in the Mountain States and Southwest

PTI and Siemens: A Strategic Alliance Fueling Unprecedented Growth in Mountain States' Industries

In the vast expanse of the industrial sectors spanning Utah, Western Wyoming, Idaho, Northern Nevada, Arizona, New Mexico, Colorado, Eastern Wyoming, and Montana, one partnership stands out for its unparalleled commitment to progress and quality: the alliance between Process Technology, Inc. (PTI) and Siemens Process Instrumentation.

Building on Legacy and Expertise

PTI has long been known for its unwavering dedication to innovation and quality, providing industries with top-tier products and solutions. Siemens, a global giant in process instrumentation, has a reputation for being on the cutting edge of technology, offering world-class solutions that enable industries to remain competitive and efficient.

The convergence of these two companies' strengths provides Mountain State industries with cutting-edge advancements in process instrumentation. Together, they enhance quality and efficiency.

The Solutions and Their Impacts

The collaboration focuses on crucial process control variables that determine efficiency and product quality:

  • Flow Control: Proper flow control ensures that processes run smoothly without waste. The PTI-Siemens partnership offers an array of advanced flow meters and controllers, paramount in industries such as water treatment, oil and gas, and chemical processing.
  • Temperature Monitoring: With cutting-edge sensors and devices, enterprises can now monitor temperature accurately, ensuring that processes requiring precise temperature conditions remain optimal.
  • Pressure Control: From basic applications to highly critical ones, the pressure control solutions offered by the duo cater to all needs, ensuring safety, reliability, and efficiency.
  • Level Monitoring: Ensuring that tanks and vessels maintain proper fill levels is paramount for safety and quality. The advanced-level monitoring solutions from PTI and Siemens ensure just that.
  • Weighing Solutions: Precision in weighing is vital for many industries. With high-quality weighing solutions, enterprises can provide accurate measurements that lead to consistent product quality.
  • Valve Positioning: Valves control many process parameters. Precise valve positioning means better control over the process, leading to enhanced efficiency and product quality.

Beyond Products - A Complete Ecosystem

Their commitment beyond mere product delivery makes the PTI-Siemens alliance even more exceptional. They provide an entire support ecosystem, including training, after-sales services, and software solutions. Such a holistic approach ensures that industries are not just buying a product but investing in a partnership committed to their growth and progress.

A Future-Ready Partnership

As industries evolve, so do the challenges they face. With the combined might of PTI and Siemens Process Instrumentation, industries across the mentioned regions can be assured of a partner always at the forefront of technology, ready to tackle new challenges head-on.

The PTI-Siemens partnership is more than just a business collaboration; it's a commitment to improving industries, delivering unparalleled quality, and a vision of a more efficient and sustainable industrial future. In the regions they serve, they are not just setting standards but defining the future.

Process Technology, Inc.