Skid systems are process systems that consist of all of the components necessary for a process mounted to a frame. In addition to being used as standalone units, they can be combined to form more complex systems for larger processing operations. Some of the applications for which they are regularly employed include renewable natural gas, compressed air, pump, and environmental protection operations.
The following article outlines the benefits of using a skid system for industrial applications and processes.
Advantages of Skid Systems
Compared to traditional equipment installations, skid systems offer a number of advantages, including:
Broader customizability. The layout of a skid system can be tailored to accommodate the setup of the facility. By keeping intuitive design practices in mind, system designers can reduce the risk of operator issues arising during operations.
Greater equipment protection. The design of skid systems makes them easy to move. This quality is highly advantageous in the event of leaks, spills, and other system issues as the unit can be easily and quickly removed to allow for cleanup or repair operations, reducing the risk of the system experiencing further damage or degradation.
Lower long-term costs. A single skid system can be used to replace multiple processing units. As a result, facility owners and managers can significantly lower their equipment investment costs. Additionally, when designed properly, it can reduce operational costs with regard to energy utilization and waste generation.
Easier system maintenance. The modular design of skid systems makes it easy for repair and maintenance personnel to identify and evaluate individual parts, resulting in faster diagnostic, repair, and replacement operations.
Better space efficiency. Modular skid systems generally require less space than individually installed equipment, making them easier to move and install to suit the current needs of the facility.
Higher reliability. Partnering with an experienced solutions provider to design and build a skid system ensures the unit will work as intended with little to no troubleshooting or downtime needed upon delivery.
Contact the Glauber Experts for Your Custom Skid System Needs
The broad customizability, equipment protection properties, low long-term costs, easy system maintenance requirements, small footprints, and excellent reliability of skid systems make them well-suited for use in a wide range of industrial processing applications. If you need a custom skid system for your facility, turn to the experts at GEC.
At Glauber Equipment Corporation, we’ve designed and built custom skid systems for over 60 years. This experience, combined with our highly trained technicians and mechanics and state-of-the-art facilities, allows us to provide solutions for even highly specific or unique requirements.
To discuss your application requirements with one of our experts, request a quote today.
Positive displacement pumps (PDPs) are one of the most commonly used types of pumps. As suggested by the name, they rely on displacement mechanisms to move fluids. Unlike other types of pumps, these pumps offer the same flow capacities at a given speed regardless of inlet or discharge pressure. Additionally, they are more suitable for use in applications with demanding or specialized requirements, such as pumping liquids with high viscosities or suspended solids.
The following article provides an overview of positive displacement pumps, outlining the types available, key advantages, typical applications, and important selection considerations.
Types of Positive Displacement Pumps
Positive displacement pumps can be categorized into three main classifications:
Rotary pumps. These pumps utilize rotating components to move fluid into and out of the pump chamber. Examples include gear pumps, lobe pumps, and screw pumps.
Reciprocating pumps. These pumps employ a reciprocating mechanism to pull fluid into the cavity through an inlet valve, then expel it through the outlet. Examples include diaphragm, piston, and plunger pumps.
Linear pumps. These pumps use a linear mechanism to displace fluids along a straight path. Examples include chain pumps and rope pumps.
Advantages of Positive Displacement Pumps
Compared to other types of pumps, positive displacement pumps offer a number of advantages. One of their primary benefits is their consistent flow rates. This quality makes them well-suited for pumping applications involving high-viscosity fluids, such as creams, oils, grease, slurries, and suspensions. They are also better able to accommodate high pressures and low flow rates.
Applications of Positive Displacement Pumps
Positive displacement pumps are used in a wide range of industries for a variety of applications and processes. Below we outline some of the typical uses of the types available.
Rotary pumps. Gear pumps are used for pumping high-viscosity fluids in the chemical and petrochemical and food and beverage processing industries. Lobe pumps are employed in biotechnology, chemical, food and beverage, pharmaceutical, and other industries with high sanitation standards. Screw pumps are utilized for fuel transfer and injection, irrigation, and oil processing and production applications.
Reciprocating pumps. Diaphragm pumps are used for metering and dispensing, cleaning, spraying, and water treatment operations. Piston and plunger pumps are employed for high-pressure washing and other applications involving low-viscosity fluids.
Linear pumps. Chain and rope pumps are utilized in wells to pump water from the ground to the surface.
Selection Considerations for Positive Displacement Pumps
Positive displacement pumps are used throughout the industrial sector to force fluids into, out of, and between different processing and production equipment. When selecting a positive displacement pump, some of the key considerations to keep in mind to ensure it operates effectively and efficiently in the application environment include:
Flow rate requirements
High-Quality Positive Displacement Pumps at Glauber Equipment
At Glauber Equipment, we carry a broad selection of positive displacement pumps from reputable manufacturers to suit the various pumping needs of our customers. Our pump offerings include:
From Wilden: air-operated diaphragm pumps for the chemical, food, pharmaceutical, and wastewater industries
From Enviro Gear: gear pumps for the asphalt, coating, and paint markets
From Mouvex: eccentric disc pumps for the chemical, food, refined fuel, and other sanitary industries
From PCM: progressive cavity pumps for the chemical, environmental, food, personal care, and pulp and paper industries
From Almatec: air-operated, diaphragm solid block pumps for the ceramic, chemical, paper, and semiconductor markets
From Tuthill: gear pumps for the agriculture, chemical, construction, and food and beverage industries
From Neptune: chemical feed and injection-type pumps for the food and beverage, general, oil and gas, and wastewater industries
From Verder/Alpha Laval: sanitary lobe pumps for the chemical, food and beverage, pharmaceutical, and wastewater markets
From Vogelsang: rubber-lined lobe, shredder, macerator, and hopper-feed pumps for the biogas, chemical, food, pulp and paper, and wastewater markets
From General Pump: high-pressure piston pumps for general industry use
To learn more about our positive displacement pumps or discuss your application requirements with one of our experts, contact us or request a quote today.
A centrifugal pump is a machine that uses rotation to impart velocity to a liquid, resulting in fluid flow, by converting rotational kinetic energy into hydrodynamic flow energy. It is the most common type of pump used in industrial processes and household purposes. Centrifugal pumps are made up of multiple components that work together, creating a device that is used in a variety of applications.
What Components Make Up a Centrifugal Pump?
There are several components that make up a centrifugal pump, including:
Impeller. The impeller rotates at high speeds to impart velocity to a liquid.
Casing. The casing serves as a pressure containment vessel and directs the flow of liquid in and out of the centrifugal pump.
Pump Shaft and Shaft Sleeves. The impeller is mounted on a pump shaft, usually made of steel or stainless steel, which transmits torque from the motor to the impeller. A protective metal shaft sleeve is threaded or slid onto the portion of the shaft inside the sealing arrangement to hold the impeller in place.
Bearing. Bearings are designed to constrain motion and reduce friction between the shaft and the stator.
Rotational Mechanics (Pumping Unit). The pumping unit is crucial to the functionality of a centrifugal pump and typically contains two parts: a pump and a driver. The driver, which is usually an electric motor, imparts rotational power to the pump.
Common Applications of Centrifugal Pumps
Centrifugal pumps are used in a variety of industries, including agriculture, dairy, food-processing, mining, chemical plants, pharmaceutical, municipal water plants, oil refineries, and more.
These industries use centrifugal pumps for the following applications:
To supply water for daily use
To pump water for domestic use
To boost pressure when pumping liquids
To provide sump drainage in sewage applications
To regulate boiler water
To assist in fire protection systems
Centrifugal Pumps from Glauber Equipment
Glauber Equipment Corporation has nearly six decades of extensive experience in the field of fluid and air flow mechanics. We design and build custom fabricated pump systems, Skid systems, landfill gas treatment systems, compressed air systems, and more. Our mission is to provide superior products that are suited to the specific needs of our customers.
Glauber Equipment’s team of experts uses high-quality equipment in our spacious facility to provide both on-site and depot repair services. Our repair vans are available 24/7 to assist our customers with any emergencies.
Some of the centrifugal pumps that we carry include:
National Pump Company
If you are on the lookout for centrifugal pumps, our expert technicians are here to help point you in the right direction and assist with installation and repairs. Browse our centrifugal pumps to find your next solution today.
Positive displacement pumps play a critical role in fluid handling and processing applications across a wide range of industries. While centrifugal pumps have replaced them as the standard for low-pressure, high-volume pumping operations, they remain necessary for highly specialized pumping applications. The following article provides an overview of positive displacement pumps, outlining what they are, how they work, and the types available in the market.
What Is a Positive Displacement Pump?
Positive displacement pumps rely on a variety of rotating or reciprocating components—e.g., diaphragms, gears, pistons, rollers, or screws—to draw in fluid into the pump chamber on the suction side and push fluid out of the pump chamber on the discharge side. The suction side has an expanding cavity while the discharge side has a decreasing cavity. This design allows the pump to generate the high pressures needed to move materials with high-viscosities and/or in precise volumes.
How Does a Positive Displacement Pump Work?
Positive displacement pumps rely on the principle of fluid displacement to move fluid from the inlet to the outlet. During each cycle of operation, the rotating or reciprocating component forces a fixed amount of fluid into the expanding cavity and out of the decreasing cavity. The amount of fluid displaced depends on the displacement mechanism employed. The rate of flow will remain constant, regardless of the discharge pressure.
Unlike centrifugal pumps, positive displacement pumps do not have shut-off heads. As a result, they cannot be operated against closed valves on the discharge side. Otherwise, the pump will continue to discharge fluid until the pressure in the discharge line is sufficient enough to damage the line and/or the pump. For this reason, industry professionals often add an internal or external safety or relief valve to the discharge side of positive displacement pumps as a preventative measure.
Types of Positive Displacement Pumps
There are two main classifications of positive displacement pumps: reciprocating pumps and rotary pumps.
Reciprocating Positive Displacement Pumps
Reciprocating pumps rely on components that perform a repetitive linear motion—i.e., up-and-down or back-and-forth—to create the pressure that draws fluid into and pushes fluid out of the pump chamber. Examples of reciprocating pump components include plungers, pistons, and diaphragms. For pumps with pistons or plungers, the suction stroke of the component opens the inlet valve and closes the outlet valve, allowing fluid to enter the pump chamber. The forward stroke of the component closes the inlet valve and opens the outlet valve, allowing fluid to exit the pump chamber. For pumps with diaphragms, the flexible membrane expands and compresses to draw the liquid in and discharge it.
Rotary Positive Displacement Pumps
Rotary pumps utilize components that perform a rotating motion to draw in and push out fluid. Examples of rotary components include gear and screws. The element develops a liquid seal with the pump casing. As a result, it creates suction as it rotates, which pulls fluid into the pump chamber at the suction point and pushes fluid out of the pump chamber at the discharge point.
To learn more about reciprocating and rotary pumps, check out this article. [LINK TO ARTICLE]
Contact the Pump Experts at Glauber Equipment Corporation Today
At Glauber Equipment Corporation, we’ve provided high-quality fluid handling solutions for over 60 years. One of our core product offerings is positive displacement pumps. We maintain a broad selection of equipment from a variety of manufacturers to accommodate the different pumping requirements of our customers. Our experts are available to help identify the best solution for every pumping application.
For additional information about our positive displacement pumps, check out our product page. To get started on your next positive displacement pump solution, contact us or request a quote today.
There are numerous types of positive displacement pumps and understanding how they work is crucial to success. Below, Glauber Equipment provides information on common types of pumps to help readers understand the differences and choose the best type for their intended application.
Diaphragm pumps, also known as membrane or air operated diaphragm pumps, are positive displacement pumps that use the combination of a thermoplastic, rubber, or PTFE diaphragm and suitable valves to pump a fluid. When operated at a given speed, their rate of flow does not vary significantly with discharge or pressure.
Diaphragm pumps can transfer a wide variety of liquids, including chemicals, with various viscosities and high solid contents. Their design allows them to be constructed with numerous body materials and diaphragms, enabling them to handle aggressive chemicals such as acids. Diaphragm pumps are used primarily in continuous applications such as general plants, industrial, and mining applications.
Gear pumps are a type of positive displacement pump that uses two or more gears to create a vacuum that drives the liquid through the pump, forcing a constant amount of fluid with each revolution. Gear pumps don’t contain any valves and are capable of operating under high forces, making them most suitable for efficiently pumping thick liquids such as oils, paints, and solvents.
Similar to gear pumps, lobe pumps operate with the counter-rotation of two lobes moving fluid through the interior of a chamber. The shaft-mounted lobes are turned with an external gearbox used to transfer energy.
The gearbox has timing gears which enable synchronized rotation to keep the lobes from contacting and create the pressure change required to induce fluid movement. As the energy from the drive shaft is transferred to the lobes, the pressure inside the chamber decreases, causing the fluid to flow.
Lobe pumps are highly efficient, reliable, rust-resistant, and hygienic, making them suitable for various applications, including chemical, pulp and paper, food, beverage, biotechnology, and pharmaceutical.
Piston pumps are positive displacement pumps that use a piston, diaphragm, or plunger to move fluids by creating a high force seal. The piston is typically attached to a shaft that is connected to a rotary component. As the rotary component turns, it transfers energy to the shaft, which operates the piston and displaces the fluid.
There are many types of piston pumps, all featuring at least one piston or plunger used to displace fluid. Piston pumps are used as hydraulic pumps for powering heavy equipment and are also used in many smaller machines, such as paint sprayers. They are capable of operating under a wide range of pressures and are good with thick liquids, slurries, and abrasives, making them suitable for various industrial applications such as water irrigation, housing, commercial buildings, fire pumps, sprinkler systems, and more.
Glauber Equipment for Your Positive Displacement Pump Needs
At Glauber Equipment Corporation, we specialize in providing solutions for all your fluid and airflow needs. We have designed and built custom pump systems for a wide range of industries since 1960, and we consult with each client to determine their exact needs. Our staff of highly skilled and trained technicians and mechanics are committed to delivering outstanding value, products, and customer service. To learn more about our positive displacement pumps, browse our selection today.
Pumps are mechanical devices vital to facilitating the movement of fluid. Variances in performance, ability to manage fluid viscosity, efficiency, and more mean there is no one-size-fits-all pump for every application. There are two main classes of pumps—centrifugal and positive displacement—and having a clear understanding of the differences between them is crucial when selecting the appropriate pump for the job at hand.
What Is a Centrifugal Pump?
A centrifugal pump is a mechanical device responsible for moving fluid by the use of centrifugal force. They contain three primary components:
Impeller:Hydraulic rotor containing a series of curved vanes whose motion accelerates fluid.
Casing:Mechanical component surrounding the impeller that collects fluid and controls discharge pressure.
Rotational mechanics:Elements (like the shaft and motor) that rotate the impeller in its casing.
Centrifugal pumps work as mechanical energy applied to the impeller imparts a centrifugal force on the surrounding water, pushing it outward radially. These high-velocity particles are captured in the casing and converted into a controlled and stable flow before being directed toward the discharge point. As the velocity of the liquid decreases inside the casing, kinetic energy is converted into pressure, helping to overcome the resistance of the pumping system.
What Is a Positive Displacement Pump?
Positive displacement pumps move fluid by trapping fixed volumes and displacing them mechanically. There are two main categories of positive displacement pumps:
Reciprocating:Repetitive strokes of pistons, plungers, or diaphragms create discharge pulses in measured amounts.
Rotary:Rotating cogs or gears create a seal that allows liquid to be carried from inlet to discharge.
Both types work using variable-volume cavities to apply suction and compression to control fluid pressure as it moves through the system.
Difference Between Centrifugal Pumps and Positive Displacement Pumps
Both styles of pumps move fluid, yet they operate in distinct ways. Below are some key differences between these pumps.
The flow rate of a fluid is its volume passing through a given area in a unit of time. Both pumps can regulate flow by changing the speed of moving water, though they do so utilizing different mechanisms. The flow rate in a centrifugal pumpis highly susceptible to the impacts of pressure. One of the main benefits of using a positive displacement pumpis its ability to produce a consistent flow rate due to its fixed volume displacement.
Viscosity refers to the friction between the molecules in a fluid and is responsible for determining the energy that will be required to make the fluid flow. Centrifugal pumpstransfer fluids with relatively low viscosity, like water or thin oils. Because these pumps have variable flow rates, increased viscosity of the fluid will cause a radical decrease in the efficiency of the pump. Although flow rates remain more consistent in positive displacement pumps, viscous fluids fill chambers more quickly to improve volumetric efficiency.
Centrifugal pumpsare most effective within 80-110% of their best efficiency point (BEP) or the flow at which the pump performs most optimally based on its intended application. In contrast, the efficiency of positive displacement pumpsimproves as pressure increases.
Centrifugal pumps can handle large volumes of fluid, produce higher flow rates, and throttle those rates over a broader range. These characteristics position them as the ideal option for applications including:
Municipal power generation
Positive displacement pumps excel in applications dealing with high pressure and high viscosity and requiring consistent performance. They are often used for:
High force washing
The Pump Experts at Glauber Equipment
With more than 60 years of experience designing and fabricating custom pump systems, our team can find a solution to any pump, fluid, or airflow question you may have.
In landfills, biodegradable waste generates variable levels of landfill gas throughout its decomposition process. The usable landfill gas—i.e., the one suitable for powering combustion operations—generally ranges around 50% methane by volume. As such, landfills that produce low calorific volume (low-CV) gas—i.e., gas with less than 50% (typically 30% or lower) methane by volume—are less likely to run effectively and efficiently. Two of the factors that affect whether a landfill produces low-CV gas are the quality (i.e., the methane content) and the quantity (the flow/volume collected) of the extracted gas.
The following article addresses the latter point—i.e., landfills with low flow/volume landfill gas collection rates. While this condition significantly reduces the energy efficiency of the landfill, the proper landfill gas management plan can minimize the severity of the effect.
The Importance of Conserving Power When Gas Flow Is Low
As indicated above, low gas flow significantly affects a landfill’s overall efficiency and effectiveness. As such, handling the issue properly if and when it occurs is critical. In addition to identifying and resolving the cause of low flow (e.g., inadequate levels of overall waste or biodegradable compounds), it is important to conserve power until an appropriate solution is implemented.
One potential solution for conserving power in low gas flow situations is integrating variable frequency drives (VFDs) in the landfill’s motorized systems. These devices allow the systems to change speeds to accommodate more efficient and effective power consumption requirements. However, they are expensive, especially when used in medium-voltage and high-horsepower systems.
Power-Saving Solutions for Low Gas Flow Situations at GEC
At Glauber Equipment Corporation (GEC), we specialize in fluid and air flow equipment and systems. For the biogas and landfill markets, we provide gas separation and compression solutions, including blowers, compressors, and dehydration units, all of which serve a critical role in the waste decomposition and gas production processes.
The compression stages of the processes rely on compressors. For these operations, we supply between two to four units, all of which are engineered to shut off in low flow conditions to conserve energy. For example, if the flow drops to 75% the normal operating conditions, one of four compressors may shut off to balance flow output with power input. Another advantage of this design is that repair and maintenance can be performed without halting production completely.
Howden Roots supplies a range of blowers and owns some of the most recognizable brands in the world. They provide displacement blowers to suit varying needs and application requirements. They can supply just the blowers on a base with a motor or in a fully enclosed unit, which is known as the Howden Roots EasyAir Package.
For solutions requiring low noise or low pulsation compression, there is an option to have innovative WhispairTM technology included on your Howden Roots blower. Their line of positive displacement blowers is robust, heavy-duty bi-lobe or tri-lobe designs built with quality in mind to deliver reliable performance. In this blog post, the team at Glauber Equipment put together a list of the many benefits of utilizing Howden Roots blowers for your application.
Roots Blowers Are Easy to Install
Howden Roots blowers are simple to install, making them an ideal solution for vacuum or pressure applications needing on-site installations. A number of Roots modelsare even designed with detachable steel mounting feet to meet horizontal or vertical mounting requirements. The compact design of the blowers is built for convenience without compromising quality and reliability. The blowers can also be designed with an acoustic enclosure to provide up to 22 dBA free field attenuation to meet low noise requirements. Roots blowers have connections to fit many standard pipe sizes to ensure easy installation in a variety of applications.
Howden Roots Blowers Are Cost-Effective Solutions
Howden Roots positive displacement blowers provide a broad operating performance range, allowing for a multitude of efficient and compact solutions. To improve accountability and blower efficiency, the Roots EasyAir blower packages are designed with convenient access to air filters, which also helps reduce losses. Howden is just as committed to protecting your investment as you are, so their EasyAir filter access design specifically applies to EasyAir packages. With a focus on personnel safety and equipment efficiency, Howden Roots blowers are designed with front to rear airflow.
The Howden Roots Blowers Design Is Durable and Reliable
Howden Roots blowers include innovative design features that reduce noise and maintenance costs while delivering reliable performance. The blower systems are suitable for pressure or vacuum applications and can be configured to meet your unique requirements. Their positive displacement blowers are conveniently designed for the backflow to be controlled and reduced from within the unit. This hard-to-beat convenience and reliability make them a top-selling positive displacement blower.
For some of the standard units, the detachable mounting feet allow the blower to be easily adapted to any of the four drive shaft positions: right, left, bottom, or top. When operated within the stated speed and pressure ratings, the compact and sturdy design of a standard blower is engineered for continuous service. And Roots’ exclusive “figure-eight” gearbox design improves oil distribution to maximize gear and bearing life of the unit.
Applications for Howden Roots Blowers
Howden Roots blowers are used in many applications. Small blowers work on trucks and supercharged cars, whereas larger blowers are used to operate vacuum filtration and drying and materials handling. Howden Roots PD blowers are designed in an array of sizes and specifications to fit application needs across many industries.
Some common applications include:
Mechanical vapor compression
Material pneumatic transfer
Other industrial processes
As a manufacturer of Roots blowers, Howden continues to lead the way when designing and manufacturing positive displacement blowers. They are reliable, easy-to-install solutions for a variety of industrial processes. As a supplier of Roots blowers, Glauber Equipment is your direct source for Howden Roots blower solutions.
During food and beverage processing operations, maintaining hygienic processing conditions and preventing contamination of the products are top priorities. To accomplish these goals, facilities employ equipment, such as pumps, to achieve and maintain hygienic conditions during food and beverage processing operations.
In light of the wide selection of pumps available, choosing the right one for a food and beverage processing application is critical and requires careful consideration of the different pump types and their properties. Among these considerations are the specific processing challenges related to the handling of each food or beverage type.
Pumps used in the food and beverage industry must provide solutions to the two main processing challenges: i) separating mechanical elements driving pump compression from the processed product and ii) maintaining the integrity of the processed product. Each pump type accommodates these challenges in different ways, leading to individual sectors preferring a specific type and design depending on the requirements of their processing operations. For example:
Lobular pumps produce a lower flow rate and tend to require a larger initial investment.
Progressing cavity pumps apply lower levels of shearing to the production medium, making it the better option for processing fragile or viscous fluids.
Double diaphragm pumps also provide lower levels of fluid shearing but with greater clearance allowances.
Centrifugal Pumps are suitable for most beverage, oil, and batter processing operations.
Positive Displacement Pumps are the most versatile. They find application in a wide range of processing operations, including wine production and the processing of thicker products and slurries, such as pie fillings, baby food, cheese, cream, icing, dressings, meat emulsions, mayonnaise, tomato sauces and pastes, and similar substance types.
In addition to maintaining the integrity of the food product throughout processing, pumps must also comply with strict regulatory standards, including:
FDA CFR 21.177 (safe elastomeric material use in pump construction)
3A (material use combined with smart design with CIP and COP, minimizing contamination)
EHEDG (adds additional performance standards and CIP testing to 3A)
These standards are in place to help eliminate contamination throughout food and beverage processing, and compliance with them is an essential element in the design of the pumps used by the industry.
Pumps Offered by Glauber
At Glauber, we offer a broad range of pumps that comply with regulatory standards and maintain food and beverage integrity during processing. Our line of positive displacement pumps designed for sanitary applications includes:
Wilden Air Operated Double-Diaphragm (AODD) Pumps
This pump features a polished 316L stainless steel whetted path design. It meets all the necessary hygienic standards, produces superior flow rates, improves energy efficiency, and meets CIP compliance design criteria.
Mouvex Eccentric Disc Pumps
This pump features a seal-less design, as well as self-priming, line-strip, shear sensitivity, and low pulsation capabilities, allowing for full compliance with food and sanitary processing standards.
Almatec AODD Pumps
Contamination-free 316L polished stainless steel whetted path components are also present in this line of pumps. This design provides for superior containment, the integration of surge dampeners, and the inclusion of full CIP design features.
PCM Pumping Systems
Within this group of pumping systems are several different pump models, including Moineau progressing cavity pumps, Delasco peristaltic pumps, Lagoa diaphragm dosing pumps, and Dosymix inline mixers.
Verder Pump Systems
Our Verder pump systems line consists of two different pump designs. The Alfa Laval SSP rotary lobe pump is suitable for general-purpose processing applications, such as managing solids, slurries, pastes, and liquids. The Packo food pump series is designed for use in applications requiring strict hygienic standards, such as are found in the dairy, brewery, distillery, and beverage manufacturing industries.
Contact Glauber Equipment Today
Choosing the right pump for food and beverage processing is a critical element in maintaining proper hygiene and preventing contamination during the production process. The food and beverage industry relies on pump designs that comply with strict material and design regulations while maintaining the integrity of the processed products.
At Glauber Equipment Corporation, we specialize in providing the best pump solutions for food and beverage processing.
Contact Us or Request a Quote today to learn more about our pump offerings or discuss your hygienic food and beverage processing needs.
Biogas offers a promising source of renewable energy for a wide range of industrial applications. Also known as biomethane or renewable natural gas, this carbon-neutral fuel is made from sources such as food waste, lawn clippings, and manure. This organic waste is broken down to create biogas and nutrient-rich fertilizer.
Natural materials are converted into biogas using three methods:
Anaerobic digestion. Microorganisms break down moist organic material, releasing energy-rich gases. This reaction occurs in a closed container and does not use oxygen.
Thermal gasification. Organic material is heated to temperatures above 600° C. The heat breaks energy bonds in the material, and biogas is released.
Sabatier reaction. Natural materials are heated under pressure. Energy bonds are broken, creating smaller hydrocarbon molecules, which become biogas.
Biogas offers a wide range of features that make it not only environmentally friendly, but fiscally sound. This blog post will discuss the benefits of biogas and why it should be considered over alternative methods.
Unlike fossil fuels, biogas is made from materials that take carbon from the air, making it a carbon-neutral fuel. If these waste products are disposed of in traditional ways, they will break down and produce greenhouse gases anyway. While biogas is a clean-burning source of energy, releasing these gases directly into the atmosphere rather than burning them contributes to the greenhouse effect.
There are multiple benefits of using waste to create biogas, such as:
It keeps the waste out of landfills and water, while it also captures and uses the gas they produce in a positive way.
Using waste to create biogas is an efficient form of waste management. When organic waste is dumped in landfills it breaks down and releases greenhouse gases. Using organic waste to produce biogas reduces the amount of landfill waste by repurposing that waste for beneficial uses.
Waste can be transformed into energy and nutrient-rich fertilizer. That fertilizer is free of weed seeds, so it reduces the need for herbicides when used on crops.
Keeping waste out of landfills also reduces soil and water pollution.
When communities use their own materials to create fuel, it reduces their dependence on foreign sources of energy.
In developing areas, generating biogas helps residents move away from gathering firewood or cooking on open fires.
A traditional linear economy is based on acquiring supplies, using them, and then finding a way to dispose of them. In a circular economy, the community creates products, makes use of them, then reuses them. Producing biogas is an excellent example of a circular economy—waste is turned into a usable form of energy, which is used to produce crops and food, which then become waste.
In the process, it also creates sustainable jobs. A low investment cost means even rural communities benefit from the employment opportunities—as well as from the biogas itself. Instead of paying to haul off and dispose of waste, biogas production can replace other costly forms of energy. It doesn’t require extensive transportation or storage compared to other common forms of energy, lowering the cost even more.
While these methods offer broad long-term financial benefits, it should be noted that producing biogases such as Renewable Natural Gas (RNG) can offer significant and immediate tax credits and other financial benefits for providers of renewable fuels. Federal and state programs exist that provide incentives to businesses that produce RNG for use as a transportation fuel, such as:
Renewable Fuel Standard (RFS). The EPA’s RFS program seeks to replace a particular volume of fossil fuels used in the United States with renewable fuels. All U.S. importers and refiners of oil-based fuels must obtain a certain amount of Renewable Identification Number (RIN) credits each year to remain compliant with RFS rules. An RIN is generated each time a producer creates one gallon of renewable fuel, and producers can trade or sell these credits.
Low Carbon Fuel Standard (LCFS). Some states have implemented their own reward programs to encourage the use of renewable fuels, such as the LCFS programs in Oregon and California. The latest LCFS changes aim at a 40% reduction of greenhouse gas emissions over 1990 levels by 2030. LCFS grants credits to renewable fuel producers, which can then be sold for a profit to other fuel producers to offset the greenhouse gas deficits they create.
Biogas Production from Glauber Equipment
Biogas production benefits local, national, and global economies. It’s a clean, fiscally sound alternative to fossil fuels. By reusing waste to create an important resource, communities keep that waste out of landfills and water. A low investment cost makes this energy resource accessible—even in rural or developing communities.