Entries by Andy Biancotti

Caso de Estudio: Expansión en Sunshine Minting

Antecedentes

Sunshine Minting, a global supplier and processor of precious metals, was looking to upgrade their dust collection system to support new melt lines and future expansion. Their existing small collectors were inadequate for the increased capacity and airflow requirements.

Worker at a metal foundry
Sunshine Minting, Inc., is a company based in Coeur d'Alene, Idaho, that processes silver, gold and other precious metals.

Scope of Work

Sunshine Minting needed a dust collection solution with sufficient capacity and airflow to handle their expanding operations. Additionally, they required improvements in ductwork to connect both new and existing processes to the new system. A spark trap was necessary to mitigate the fire risk from sparks traveling through the ductwork into the collector. Additionally, flame resistant filters were used for extra protection.

solución

Baghouse.com responded to Sunshine Minting’s needs by dispatching a technician for an on-site inspection. The technician documented the facility layout, the proposed location for the new collector, and the new ductwork configuration. Following this, we installed an ACT 4-48 cartridge collector con a 20,000 CFM fan, a 50 HP motor, and a VFD control panel. A Boss Products Raptor Shield 22″ spark arrestor was also installed, along with connecting ductwork throughout the facility. The turnkey installation included programming of the VFD and airflow measurements to confirm adequate airflow and pressure at pickups and ducts.

What is a VFD?
It stands for Variable Frequency Drive, and is a type of fan controller. A VFD allows the user to run their dust collector fan at a lower or higher rate to manage performance. Rather than simply flipping a switch and running your fan at full speed (think 40kW per hour), the fan motor will run at a lower rate, saving significant energy costs in the long run.

Installation Challenges

Placing the new collector and fan without interfering with existing condensers and other equipment was a challenge. To overcome this, the inlet duct was routed up and over the area, and the fan exhaust was directed away from the facility as requested by the customer. These minor layout modifications are common and easily accomplished with a proper design and layout review.

Melting metal
Minting facilities often generate a high volume of metallic dust during operations such as melting, cutting, and polishing.

Outcome

The installation of the modern cartridge-style collector has provided Sunshine Minting with sufficient fan and filter capacity for current processes, and extra capacity for future expansion. The VFD controller on the fan improves power efficiency and allows for easy adjustment to accommodate future changes. The MERV 15 rated nano media filters, upgraded with flame retardant treatment, ensure maximum safety from sparks or hot coals.

Sunshine Minting now enjoys enhanced dust collection efficiency and safety, with the system’s additional capacity supporting their ongoing and future operational growth. The improved power efficiency and safety features represent a significant upgrade from their previous setup.

Conclusión

Baghouse.com successfully addressed Sunshine Minting’s dust collection needs with a comprehensive solution that supports their expanded operations and future growth, enhancing both safety and efficiency in their facility.

Would you like to know how a technical inspection and a system report al Baghouse.com could improve the efficiency of your operations? 

 

Talk now with one of our baghouse experts for more information!

Cómo medir tus filtros y jaulas de baghouse.

When ordering replacement baghouse bag filters, it is extremely important that you order the right size to ensure a proper fit in your baghouse.

Top Load Snap Band Baghouse Filter & Cage Measuring GuideProperly fitting bags and cages are integral to achieving long filter bag life and optimum baghouse performance. Filter bags come in a huge variety of sizes and types, to fit many makes and models of baghouses.

Measuring Filter Bags & Cages - Key Terms

Flat Width/Diameter

This is the most critical measurement, and the one people most often get wrong. As we need this size correct down to a ⅛”, it is not possible to measure the diameter of a loose bag accurately enough for ordering. For that reason, we instead rely on a flat width measurement, which we can then convert to an accurate diameter. 

Largo 

For top load pulse jet bags, the bag is the same length as the cage or just 1⁄2” longer. For bottom load pulse jets, where the top of the raw edge bag is folded over the top of the cage, we recommend 4” of overlap, but some OEMs recommend 2”. 

Tubesheet Hole Size/Snap Band Size 

Often the hardest dimension to confirm, a hole size measurement accurate down to 1/32” is required to ensure proper fit. For best results, measure the hole with calipers or check the OEM drawings for details. Alternatively, you can send a sample bag to confirm the tubesheet hole size or have us make a sample bag/cuff to test fit before releasing the entire order to production. 

Size Draft/Accurate Specifications

While it is usually possible to rely on previous bag sizing when reordering, at times, there may be reason to reconfirm all bag and cage sizing choices. Over time, sloppy or copy errors can result in slight variances in sizing making their way into orders and company records. In this way, the original bag sizing can see a slight, but impactful creep over successive orders. 

When we suspect this has happened, we may ask you to go back and provide us with the fundamental component sizing that dictates the overall bag and cage sizing. For top load pulse jet, reverse air, and many shaker units this is the tubesheet hole size. For bottom load pulse jets, and some reverse air/shaker units, it is the mounting hub/venturi. 

Once we have this fundamental sizing information, we can then recommend the proper bag and cage sizing. 

Bag/Cage Fit or “Pinch”

Filters that are too loose or too tight on the cages will severely limit collection efficiency and lead to premature failure. For most felt bag materials (polyester and aramid/nomex being the most common) we generally recommend ¼” to ½” of pinch, meaning the bag diameter is that much larger than the cage. Other specialty fabrics such fiberglass, P84, and fabrics with PTFE membrane applied to them may require tighter tolerances. 

Number Cage Vertical Wires and Horizontal Ring Spacing

Proper care must be taken to ensure that the cage construction will properly support the filter bag as well as optimize cleaning and efficiencies. Most fabrics work well with using cages with 10, 12 or 14 vertical wires. However, some specialty fabrics such fiberglass, P84, and fabrics with PTFE membrane applied to them require the additional support of 20 wire cages and possibly tighter spacing on the horizontal rings.

Common Bag and Cage Size Combos

Below we have listed a few common sizes for pulse jet and reverse pulse systems in use today. 

Top Load Style

  • —Bag: 6.25” x ¼” tubesheet hole, 5.875” diameter x 96”/120”/144” long, snap band top, disk bottom – Cage: 5.625” diameter x 96”/120/144” long, turned down flange top (with or without integral venturi), pan bottom, 12 vertical wires, horizontal rings on 8” centers
  • —Bag: 6.25” x ¼” tubesheet hole, 6” diameter x 96”/120”/144” long, snap band top, disk bottom – Cage: 5.75” diameter x 96”/120/144” long, turned down flange top (with or without integral venturi), pan bottom, 12 vertical wires, horizontal rings on 8” centers
  • —Bag: 5” x ¼” tubesheet hole, 4.625” diameter x 96”/120”/144” long, snap band top, disk bottom – Cage: 4.5” diameter x 96”/120/144” long, turned down flange top (with or without integral venturi), pan bottom, 12 vertical wires, horizontal rings on 8” centers

Bottom Load Style

  • —Bag: 5.865” diameter x 100”/124” long, raw top, disc bottom – Cage: 5.625” diameter x 96/120”” long, split collar top, pan bottom, 12 vertical wires, horizontal wires on 8” centers (Flex Kleen style bottom load)
  • —Bag: 4.625” diameter x 100”/124” long, raw top, disc bottom –  Cage: 4.5” diameter x 96/120”” long, split collar top, pan bottom, 10 vertical wires, horizontal wires on 8” centers (Mikropul bottom load and “twistlok” style)

Baghouse Cages - Different Styles Guide
Cantidad de alambres, estilo superior e inferior de las jaulas

 

Top Load, Snap Band Filter Bag 

Measuring filter bag

Use a tape measure or ruler and measure the width across the bag.

Flat width/Diameter

  1.  Lay the bag out on a table or floor, flatten it completely.
  2. Use a tape measure or ruler and measure the width across the bag.

 

Longitud

Mide a lo largo de la costura que recorre la longitud de la bolsa. Comienza en el centro de la banda de sujeción y termina en la primera costura en la parte inferior de la bolsa.

Cage-to-Bag (Bag-to-Cage) fit

Should have ¼” to 3/8” pinch; the bottom of the bag should have about a thumbs width between the bottom of the cage and the disc bottom of the bag.

 

Top Load, Snap Band Filter Bag – Woven Fiberglass

  1. Flat width: Flatten bag and measure width across.
  2. Longitud: Mide a lo largo de la costura que recorre la longitud de la bolsa. Comienza en el centro de la banda de sujeción y termina en la primera costura en la parte inferior de la bolsa.
  3. Cage-to-Bag (Bag-to-Cage) fit:  Should have 1/8” or less pinch, but shouldn’t be stretched tight around the cage.

Top Load, Snap Band Filter Bag – Felt with membrane

  1. Flat width: Flatten bag and measure width across.
  2. Longitud: Mide a lo largo de la costura que recorre la longitud de la bolsa. Comienza en el centro de la banda de sujeción y termina en la primera costura en la parte inferior de la bolsa.
  3. Cage-to-Bag (Bag-to-Cage) fit:  Should have 1/8” or less pinch, but shouldn’t be stretched tight around cage.

Shaker style Filter Bag

  1. Flat width: Flatten bag and measure width across.
  2. Longitud: Measure along the seam running the length of the bag. Start at the end of the snap band to the end of the bag, not including the tail.
  3. Length of the tail: Measure along the seam from the end of the bag to the end of the tail
  4. Flat width of the tail: Flatten tail and measure width.
  5. Determine if the tail is 3 ply or 4 ply by pinching the material and feeling for layers.
  6. If there is a wear cuff at the snap band end of the bag, measure length and width.

Measuring Cages - Step-By-Step

Step one: Measure from top to bottom the full length of the cage.

Step one: Measure from top to bottom the full length of the cage.

  1. Full length of the cage:  Mide de arriba a abajo.

Filter cage measuring

Mide el diámetro en el centro de la jaula, en el punto más ancho entre los cables. Idealmente, usar una cinta Pi para determinar la circunferencia proporcionará una medición exacta.

2. Diámetro: Mide el diámetro en el centro de la jaula, en el punto más ancho entre los cables. Idealmente, usar una cinta Pi para determinar la circunferencia proporcionará una medición exacta.

Be aware that some OEMs make the bottom pan slightly smaller than the cage body to make it easier to insert the cage into the bag. This is why you should always measure the diameter near the middle of the cage.

Filter cage measuring
AVOID measuring the diameter of the cage at the bottom. Measure diameter in the middle of the cage at the widest point between wires.

 

3. Bottom construction: Determina si la copa inferior está doblada o si los cables están soldados a la copa. 

4. Number of rings: Cuenta el número de anillos.

5. Space between rings:  Mide el espacio entre los anillos. Nota: el espacio entre el último anillo y la parte inferior de la copa puede ser diferente.

6. Number of vertical wires: Cuenta el número de alambres verticales que recorren la longitud de la jaula.

7. Material: Acero sin tratar, galvanizado, recubierto, acero inoxidable 304, o especifica si es otro material.

8. Determine the top construction of the cage:

    • — If the top has a venturi, measure the length of the venturi.

Filter cage venturi measuring
Venturi come in two styles: A separate drop in piece (shown here) or as integral versions that are welded into top of the cage (see photo below)

The Most Common Dust Collector Cage Styles
Venturi welded into top of the cage

The Most Common Dust Collector Cage Styles
Some of the most common dust collector cage styles
are Split Collar (or Rolled Band) for bottom load units

The Most Common Dust Collector Cage Styles
Other most common dust collector cage styles are Rolled Flange (or Turned Down Flange) and venturi for top load units

    • — If the top has a split top, measure the space between the groove in the split top and the end of the top

If the top has a split top, measure the space between the groove in the split top and the end of the top
On split top cages, measure the space between the groove in the split top and the end of the top

Tubesheet hole size measuring

Measure across the center of the hole in a straight line from one edge to the opposite edge.

Another important measurement to have in mind when ordering filters or cages, is the size of the tube sheet hole where our filters will be placed. This will ensure there is a perfect seal, extending the life of the filters and not allowing dust to go through.

 

With a wide range of sizes and types available, it’s essential to select the right filter bags and cages to suit your specific dust collector model. Following these basic steps will help you make informed decisions when ordering replacements, ensuring smooth operation and extended filter bag life for your dust collection system. 


Another option to find out the right size of your filters and cages is to send us a used filter or cage so we can measure it for you. Feel free to get in contact with us if you prefer this option and we will be happy to assist you.

 

If you need assistance with measuring filters or cages, please reach out to one of our experts clicking below:

Habla con uno de nuestros expertos en recolectores de polvo

Para obtener más capacitación e información relacionada con colectores de polvo, asegúrese de visitar nuestra página de Capacitación sobre Colectores de Polvo haciendo click aquí.

Evolución de los colectores de polvo a través del tiempo

Dust collection began during the late 1800s Industrial Revolution in the US, spurred by the rise in manufacturing and the oil industry, which generated increased waste like sawdust, coal dust, and chemicals. This waste polluted the air near factories, leading to health concerns. To tackle this, dust collectors were invented.

 

Industrial America, manufacturing pollution
The rise of several manufacturing and oil companies
impulsed the need for dust collection systems

The First Dust Collector

The first dust collector is subject to debate, with some attributing it to Wilhelm Beth for his filter-based design, while others credit John Finch for his Cyclone Dust Collector introduced around 1885. Cyclones became popular by 1900 for their effectiveness in collecting coarse dust, and they’re still used today. Operating on centrifugal force, cyclones create a vortex that separates dust from air, depositing it into a collector while letting filtered air out.

 

Dust Collection Inventor
Wilhelm Beth, considered the father of dust collection

The Shaker Dust Collector

In the mid-1920s, a significant advancement in dust collection emerged with the invention of the Shaker Dust Collector by Wilhelm Beth in Germany. Wilhelm introduced a baghouse unit connected to machines via ductwork to collect sawdust and similar materials. The filter elements in this system are self-cleaned using a vibrating motor attached to the frame, which shakes the filter bags to dislodge accumulated dust.

 

Shaker dust collector design drawing
Shaker dust collector designed by Wilhelm Beth

Over time, the design of the Shaker Dust Collector was refined, incorporating better filters capable of capturing smaller particles while maintaining optimal airflow and efficiency. Although still in use today, Shaker Dust Collectors have declined in popularity due to their relatively low air-to-cloth ratio and large footprint, which demands considerable space.

Cartridge Dust Collector

In the early 1970s, the dust collector saw another evolution with the introduction of the cartridge collector. This innovation replaced the fabric in baghouse filters with cartridge media, offering finer filtration. Capable of efficiently filtering particles as small as 0.3 microns, cartridge collectors excel in removing fumes from the air.

New Dust Collection Options

In the mid-1900’s, environmental regulations became more common and major polluters came under pressure to clean up the massive amounts of dust they generated. Shaker bags and basic fabric filters could not handle the task. 

Reverse air baghouses were invented around this time, shortly followed by pulse jet baghouses. These provided tremendous improvements in dust collection by setting up an arrangement of filtration bags that could be cleaned by fans or compressed air pulses instead of shaking. These methods kept the bags cleaner and increased the efficiency of the filters. 

The invention of baghouses brought a new era in the history of dust collection. Both types of baghouses are still in use today, and they continue to work well. They are especially useful in applications with high temperatures and high humidity. Bags are now made of a wide variety of materials specialized for different needs. 

 

The Future of Dust Collection

As technology continues to evolve, the future of dust collection holds exciting possibilities. Integration with smart devices and cloud-based platforms could enable remote monitoring and control of dust collection systems, empowering operators to manage their systems with unprecedented efficiency and flexibility. Continued research and development efforts may unveil new methods and technologies to further improve dust collection performance, ultimately fostering safer and healthier work environments across various industries. 

 

Remote monitoring technology software
Remote monitoring can detect in advance the need for maintenance, or issues that can stop production, like hazardous leaks or fire

With ongoing technological advancements, the future holds the promise of even greater strides in optimizing dust collection systems for enhanced workplace safety and environmental stewardship. En Baghouse.com we are always researching and implementing the latest cut edge technologies, continuing to make history in dust collection.

 


Would you like to know how this technology can be applied to your application?

 

Contact Us to Speak to One of Our Baghouse Experts

Para obtener más capacitación e información relacionada con colectores de polvo, asegúrese de visitar nuestra página de Baghouse Online Training page.

Troubleshooting Your Dust Collector Pulse Jet Cleaning System

Top Load Baghouse

Overview of a pulse jet top load baghouse

For a dust collection system to operate efficiently, the filter cleaning system must be designed, installed and maintained properly. The following troubleshooting basics are intended to help avoid common pitfalls. (Note: Think of these tips as your dust collector’s GPS – they won’t replace the regular check-ups, but when your collector decides to throw a fit and send you through a back road, you will be better prepared to come back on track without losing lots of time or resources…)

When issues arise, it’s essential to troubleshoot effectively. Start by asking, “What has changed?” It could be a worn component or a shift in the operating environment. Even adding a single pickup point can impact the entire system.

Common pulse-cleaning system problem sources

Key Steps for Troubleshooting

  1. Baghouse personnel checking differential pressure in a baghouse

    A correct dP reading is vital for performance tracking.

    Check Differential Pressure (dP): Measure with a magnehelic gauge to assess filter media condition. The dP across the filters should slowly increase as dust builds up on the filters, then suddenly decrease when the cleaning system fires a pulse of compressed air, cleaning the filter and reducing pressure across the filter.

  2. Troubleshoot dP Gauge: As part of your periodic inspection process, remove the air lines connected to your dP gauge and ensure there are no obstructions or leaks in the lines. Replace old lines and ensure airtight connections. Even a small amount of dust in the gauge will lead to false readings or foul the gauge. 
  3. Listen for Problems: With the cleaning system active, listen to the pulse jets fire. You should hear a tight blast of air. If it sounds “off” – you hear a squeak, a rattle, a click but no air, etc. it is a sign that something requires attention. Most common issues are worn diaphragms (rattle or puff sound), leaks in connecting hoses (hiss sound), and stuck  solenoids (a click but no air noise).
  4. Check Compressed Air Pressure: Ensure your system has a compressed air gauge nearby so you can check it as part of your daily or weekly inspection. Review your equipment manual to ensure compressed air is set to the correct pressure. Ensure that your compressed air is clean and dry.
  5. When the timer board has its lights off, then lack of power could be the problem

    Timer board with lights off indicating no power

    Timer Board Settings: Less common issues arise with the timer board, most often due to a surge in electricity or an unauthorized change in the board settings. If you have a ‘clean on demand’ setup, the pulse cleaning system will only fire when the dP reaches a high limit. Equally important is the low limit, where the cleaning shuts off. There are other settings that can be programmed on your control board such as On-Time and Off-Time that control how long the valves are open for and how long it waits between firing the valves. Once set, these  should only be changed by authorized personnel. Most timer boards have indicator lights that will flag errors or basic issues. Refer to your equipment manual to ensure all settings are correct.

 

 

In the following video, you will see an overview of a system, from the blowpipes and diaphragm, to the control box. Actively listening to how your valves shoot will help you identify the most common issues.

Damaged by rust or out of position blowpipes could affect the operation of a pulse-cleaning system

Blowpipes knocked out of position

6. Other Common Pulse-Cleaning System Issues: Less common (but still important to know) issues include damaged or out of position blowpipes, stuck solenoids, water or oil in compressed air source, and electrical wiring issues.

When to Troubleshoot

Taped up pulse valve connecting tube indicating likely air leak location in a pulse-cleaning system

Taped up pulse valve connecting tube indicating likely air leak location

High dP without filter life exhaustion is your first indication of a cleaning system malfunction. If the dP seems off, start by listening for the pulse valves to fire, then run through the items above to identify the issue.

 

Adjust Timer for Medium-Pressure Systems: Lengthen pulse intervals by adjusting the timer to fill the reservoir adequately. Check for leaks and loose connections before replacing components.

 

Beyond Cleaning System Issues:

  1. Filter Inspection: Assess filter condition and look for moisture or caking issues.
  2. Environmental Conditions: Consider variations in temperature and humidity, especially in colder regions.
  3. Wear and Corrosion: Monitor aging systems, especially if handling abrasive or corrosive materials.
  4. Human Factors: Be aware of unintended actions like shutting off compressed air or adjusting fan dampers.
  5. Long-Term Monitoring: It is a good practice to monitor the system (specifically the dP) over an extended period to identify patterns or external factors affecting performance.


Hopefully, these tips will be able to guide you through unexpected challenges as a GPS, navigating the potential issues and ensuring your operations stay on track without losing valuable time or resources.

 

You haven’t found the problem yet? Did you find the problem, but you need assistance fixing the issue? 

Talk to one of our dust collection experts, and they will be able to help you troubleshoot!

Caso de Estudio: Optimización de la recolección de polvo en la producción de asfalto

When one asphalt plant began experiencing a mix of serious challenges (abrasive dust damaging equipment, fine particles posing health risks, and high temperatures creating cleaning and safety issues) they turned to Baghouse.com for a solution. What followed was a carefully engineered response that tackled each problem head-on and also boosted overall efficiency and compliance. Here’s how we helped them get their dust collection under control and their plant back on track.

Antecedentes

Baghouse.com collaborated with an asphalt plant facing some of the following challenges: 

  1. Coarse particles cause wear and tear on dust collection equipment and filter bags. 
  2. Fine asphalt dust presenting health risks and demanding specialized filtration methods due to varying material compositions. 
  3. Elevated temperatures creating difficulties such as dust adherence, cleaning, and the risk of fire and explosion.


En las últimas 4 décadas, Baghouse.com has helped many asphalt plants across North America design their systems, maintain, troubleshoot, and upgrade their systems. We have learned many good tips we would like to share with you in a series of three articles:


New large top-load pulse jet baghouse installed by Baghouse.com equipped to handle high temperatures, preventing issues such as dust sticking, enhancing cleaning efficiency, and minimizing fire and explosion risks.
New large top-load pulse jet baghouse installed by Baghouse.com

Scope of Work

Baghouse.com implemented a comprehensive solution featuring a large top-load pulse jet baghouse. 

Key components included:

  1. Specialized filter media designed for abrasion and temperature resistance, ensuring effective dust collection and prolonged filter life.
  2. Equipment and filter bags designed to withstand the abrasive nature of particles, minimizing maintenance costs.
  3. Systems equipped to handle high temperatures, preventing issues such as dust sticking, enhancing cleaning efficiency, and minimizing fire and explosion risks.

Outcome

Implementation of effective dust collection not only ensured workplace safety but also controlled emissions harmful to health and the environment, like volatile organic compounds, particulate matter, and carbon monoxide.

Additionally, closed belt systems on aggregate conveyor belts and efficient dust filtering systems contributed to reduced dust emissions. 

Conclusión

By combining high-quality filter media, abrasion-resistant systems, and temperature-resilient filtration, the client’s asphalt plant achieved increased efficiency, reduced maintenance costs, and ensured compliance with environmental and safety standards. This case study demonstrates the importance of specialized dust collection strategies in the asphalt industry to mitigate health risks, environmental impact, and operational challenges.

Would you like to know how a thorough technical inspection by Baghouse.com could improve the efficiency of your operations? Talk now with one of our baghouse experts for more information!

Caso de Estudio: optimización de la recolección de polvo en la fabricación de yeso

Antecedentes

A major gypsum manufacturer in Houston sought the expertise of Baghouse.com to address some challenges in their processing facility. Gypsum powder, a crucial material in construction, undergoes crushing, grinding, and other processes during its production.

Gypsum dust accumulation on top of dust collector.
Gypsum powder leaks can negatively affect your operations

Scope of Work

Gypsum manufacturing, especially in drywall production, contributed to environmental concerns due to particulate emissions and energy-intensive processes.

Baghouse.com provided and installed a new baghouse system equipped with a fan and optimized ductwork. The goal was to efficiently capture and control dust emissions throughout the 5 gypsum processing stages (crushing, screening, grinding, calcination, storage and transportation).

The design incorporated a closed circulation system with negative pressure, ensuring that the air path remained enclosed. To address the increase in air volume due to water content in raw materials and evaporation during grinding, a regulated air volume system was integrated. 

 

Baghouse.com provided and installed a new baghouse system equipped with a fan and optimized ductwork.
New baghouse system equipped with a fan and optimized ductwork.

Outcome

The implementation of a new baghouse system reduced particulate emissions during the grinding and processing stages, and greatly reduced energy costs.

Conclusión

Baghouse.com‘s tailored solution optimized dust collection for our client in Houston. This case study showcases the effectiveness of advanced dust collection strategies in mitigating environmental impact and enhancing the sustainability of manufacturing processes in the gypsum industry.

Would you like to know how a thorough technical inspection by Baghouse.com could improve the efficiency of your operations? Talk now with one of our baghouse experts for more information!

Caso de Estudio: mejora de la recolección de polvo en la fabricación de productos químicos en Teknor Apex

Antecedentes

Teknor Apex, a leading player in the chemical manufacturing industry, faced challenges associated with airborne dust and chemical fumes, posing risks to air quality, worker health, and plant safety. Baghouse.com collaborated with them to address these challenges through the implementation of an advanced dust collection system.

To prevent the dispersion of chemical fumes and dust, hoods and extraction arms were incorporated into their machinery to capture contaminants at their origin, minimizing their spread within the plant.
New dust collection system with safety components integrated into the system, such as an explosion isolation valve, explosion vents, and an explosion-rated rotary valve to enhance plant safety.

Scope of Work

Everyday processes such as mixing, conveying, and blending generated hazardous airborne dust, creating potential fire and explosion hazards. Additionally, compliance standards for worker exposure limits, environmental regulations, and combustible dust standards demanded a comprehensive solution.

Understanding the unique dust issues related to chemical processes, we designed a system with high-efficiency primary and secondary cartridge filters. To prevent the dispersion of chemical fumes and dust, hoods and extraction arms were incorporated into their machinery to capture contaminants at their origin, minimizing their spread within the plant.

Considering the combustible nature of their dusts, NFPA-compliant safety components were integrated into the system, such as an explosion isolation valve, explosion vents, and an explosion-rated rotary valve to enhance plant safety.

Outcome

The source capture strategy not only enhanced efficiency but also minimized energy consumption, resulting in operational cost savings. NFPA-compliant safety measures provided Teknor Apex with robust protection against fire and explosion hazards, ensuring a safer working environment.

New dust collection system with safety components integrated into the system, such as an explosion isolation valve, explosion vents, and an explosion-rated rotary valve to enhance plant safety.
New dust collection system with safety components integrated into the system, such as an explosion isolation valve, explosion vents, and an explosion-rated rotary valve to enhance plant safety.

Conclusión

Baghouse.com‘s expertise in dust collection systems played a pivotal role in transforming Teknor Apex’s thermoplastics manufacturing facility. By addressing airborne dust hazards at their source and incorporating advanced safety features, the implemented system not only met compliance requirements but contributed to their overall operational efficiency.

Would you like to know how a thorough technical inspection and a system report by Baghouse.com could improve the efficiency of your operations? Talk now with one of our baghouse experts for more information!

Caso de Estudio: actualización del sistema de recolección de polvo para guitarras Gibson 

Antecedentes

Gibson Guitars, a renowned name in the music industry, faced a critical need to upgrade the dust collection systems in their Bozeman, Montana, and Nashville, Tennessee manufacturing plants. The existing systems were outdated, with operational inefficiencies and lacked compliance with combustible dust safety regulations outlined by NFPA.

Gibson guitar old baghouse, side view with holes on top
The existing baghouse was an outdated plenum pulse dust collector. It has massive holes on the roof that had been covered with a tarp.

Scope of Work - Nashville, TN Plant

Gibson guitar dust collector - old fan and baghouse that was replaced
The existing outdated plenum pulse dust collector, fan and ductwork was replaced with a modern pulse jet baghouse from Baghouse.com along with new ductwork, combustible dust protection and a new system fan.

Having recently come under new management, Gibson Guitars embarked on a multiyear project to upgrade its dust collection systems at both its Nashville, Tennessee and Bozeman, Montana plants. The goal was to increase efficiency, reduce downtime, and improve the safety and environmental aspects of their systems. 

First, Baghouse.com was contacted and asked to conduct a thorough audit of the existing dust collection systems at the Gibson USA plant  in Nashville TN, in particular an outdated plenum pulse envelope baghouse that was in desperate need of replacement. The unit had suffered from years of neglect and was in poor physical condition, with large holes on the roof and sides of the unit.  Additionally, the system had only partial protection against combustible dust hazards, which the plant wanted to address. 

Taking into account their unique needs, we designed a complete dust collection system to meet the current production needs as well as providing for future growth. This included the installation of a new pulse jet style baghouse, a larger system fan, upgraded ductwork, and the integration of NFPA-required combustible dust safety equipment. To ensure compliance with NFPA regulationsexplosion vents and an explosion isolation valve were strategically installed. Additionally, explosion-rated equipment, such as rotary valves, replaced non-compliant elements in the discharge system.

Gibson pulse jet baghouse from Baghouse.com after installation
New pulse jet style baghouse installed at Gibson USA in Nashville, TN by Baghouse.com

Scope of Work at Bozeman, MT plant

Existing baghouse at Gibson Guitars in Bozeman, Montana that was replaced.
Existing baghouse at Gibson Guitars in Bozeman, Montana that was too small for the increased production needs of the company.

The situation at the Bozeman, Montana plant was somewhat different. This plant, which produces all of Gibson’s acoustic guitars, had an existing system that worked well, but that was far too small to account for increased production projections. The expansion of the facility was to take place in two stages: First, a new building was to be built while the existing building and production machines were to keep running. Once the new building was up, the layout of production machines would be completely reworked between the two buildings. Additionally, Gibson asked that the new system be designed and installed in such a way so as to not disrupt existing production and that the changeover be done with little to no downtime. The new system would also need to be able to transition into its expanded role once the facility expansion project was completed in several years.

With these challenging requirements, Baghouse.com set about engineering, supplying, and installing a new dust collection system that: (1) would provide for the current production needs, (2) be capable of nearly 3x capacity when the plant expansion was completed, (3) could be installed without disrupting production, and (4) meet or exceed existing best practice for combustible dust applications.

The solution proved to be a much larger multiple compartment pulse jet baghouse capable of handling 75,000 CFM+. The module (i.e. multiple compartment) style was used to provide additional redundancy and minimize downtime when conducting maintenance. Additionally, the system was outfitted with several protection devices to resolve combustible dust hazards such as high speed abort gates, spark detectionNFPA compliant rotary airlocks and explosion venting.

Importantly, during the design stage we proposed locating the new collector and fan adjacent to the existing baghouse so that it could be installed and brought online without decommissioning the existing system. When the switchover was to take place, we were able to simply extend the existing main trunk of the ductwork over to the new collector and connect the new return air ducting into the building through an enlarged wall penetration.

Eventually, once the new plant layout has been completed, a new, larger interior ductwork system will be installed and reconnected to utilize the full capacity of the new baghouse. 

Thew system provides sufficient performance for the existing plant layout and stands ready to handle the estimated 3x increase in demand that will be needed once the plant’s expansion project is completed. 

Conclusión

The upgraded dust collection systems led to improved operational efficiency, reducing downtime caused by maintenance issues and gained long-term reliability, reducing the need for frequent repairs and replacements.

Baghouse.com‘s expertise in dust collection systems proved instrumental in providing Gibson Guitars with a reliable, compliant, and efficient solution. These projects not only addressed immediate challenges but also positioned these woodworking facilities to handle the demand placed on them by Gibson’s sustained growth. Additionally, Baghouse.com’s ability to offer complete turnkey solutions allowed for the development of a comprehensive plan covering the collector, system fan, ductwork, combustible dust safety and installation processes so as to minimize production downtime during the changeovers.

We feel privileged to have been able to work with such a great company and to be part of their legacy as they continue to evolve to meet the needs of the 21st century musician.

 

Would you like to know how a thorough technical inspection and a system report by Baghouse.com could improve the efficiency of your operations? 

Talk now with one of our baghouse experts for more information!

Caso de Estudio: Seguridad frente al polvo combustible en la fabricación aeroespacial 

Antecedentes

An aerospace manufacturing client approached Baghouse.com looking for assistance in aligning with Dust Hazard Analysis (DHA) recommendations, which had identified non-compliance with NFPA guidelines for combustible dust hazards. 

Scope of Work

 

Dust Hazard Analysis (DHA) Compliance

  1. Baghouse.com conducted a thorough assessment of the existing dust collectors and equipment and compared the findings to NFPA guidelines for combustible dust hazards.
  2. la DHA report highlighted critical gaps that needed urgent attention to ensure compliance and mitigate the risk of combustible dust incidents.

System Consolidation and Upgrade

Rusted and outdated baghouse unit

One of the many small old baghouses that were replaced
by one bigger, more efficient unit

In response to the DHA findingsBaghouse.com proposed consolidating pickups from several older baghouses into a single, more efficient unit.

The baghouse underwent a major refurbishment, including the installation of new cartridge filters, válvulas, solenoids, and updated hardware to meet industry standards.

NFPA-Compliant Safety Measures

Explosion isolation valve installed to meet safety requirements

Heavy gauge ductwork was strategically installed between the baghouse and the explosion isolation valve to meet the safety requirements outlined by NFPA.

To enhance safety measures, Baghouse.com incorporated NFPA-compliant explosion vents and an explosion isolation valve.

Heavy gauge ductwork was strategically installed between the baghouse and the explosion isolation valve to meet the safety requirements outlined by NFPA. 

Specialized Equipment Installation

 
The installation of explosion-rated vents aimed to minimize the risk of dust-related incidents and ensure the safety of the environment.

Nuevas válvulas de alivio para explosiones

A crucial aspect of the upgrade involved replacing the non-compliant flex hose discharge with an explosion-rated rotary valve.

The installation of explosion-rated components aimed to minimize the risk of dust-related incidents and ensure the safety of the environment.
 

Outcome

This aerospace manufacturing facility achieved full compliance with NFPA guidelines for combustible dust hazards thanks to Baghouse.com tailored approach.

Conclusión

Baghouse.com expertise in dust collection systems and commitment to safety provided a seamless transition for this client. By addressing DHA recommendations and implementing NFPA-compliant upgrades, the project not only met regulatory requirements but also significantly improved the safety and efficiency of the dust collection processes.

 

Would you like to hear how a technical inspection and a system report by Baghouse.com could improve your operations? 

Talk now with one of our baghouse experts for more information.

Caso de Estudio: recolección de polvo en la industria minera

Antecedentes

 

Baghouse.com personnel performing an inspection that involved a meticulous examination of baghouses, collectors, fans, airlocks, conveyors, ductwork, pickups, and auxiliary equipment.

Baghouse.com personnel performing an inspection that involved a meticulous examination of baghouses, collectors, fans, airlocks, conveyors, ductwork, pickups, and auxiliary equipment.

Baghouse.com partnered with a large mining company to improve their dust collection systems across multiple facilities across the US. We conducted system inspections and provide personalized training sessions for the maintenance, operations, and engineering teams.

Scope of Work

 

System Inspection:

  1. Baghouse.com started the project with an in-depth review of the existing dust collection systems at various mining facilities.
  2. The inspection involved a meticulous examination of baghouses, collectors, fans, airlocks, conveyors, ductwork, pickups, and auxiliary equipment.
  3. Various parameters, including airflow, velocity, and pressure readings, were measured for a comprehensive evaluation.

Training Classes:

  1. Following the inspection, Baghouse.com conducted half-day training classes tailored to the specific needs of maintenance, operations, and engineering staff.
  2. The training aimed to empower the teams with the knowledge and skills necessary to operate and maintain the dust collection systems efficiently.
  3. Key topics covered included best practices in system maintenance, identifying performance issues, and optimizing equipment for prolonged life.


Baghouse.com experts conducted a half-day training class tailored to the specific needs of maintenance, operations, and engineering staff.
Employees from different areas benefiting from the
in-depth analysis of their systems and the most efficient maintenance routine

Outcome

The mining company gained a clear understanding of the existing issues and opportunities for improvement within their dust collection systems.
The training sessions equipped the teams with practical knowledge, fostering a proactive approach to system maintenance and operation.
Baghouse.com implemented follow-up improvement projects based on the inspection report, ensuring sustained efficiency and compliance with industry health and safety standards.

Conclusión

Baghouse.com collaboration with the mining company exemplifies the significance of dust collection system inspections and training in the mining industry. By addressing existing challenges and empowering teams with relevant knowledge, the project not only optimized their performance but also laid the foundation for sustained operational excellence.

 

Would you like to hear how an inspection and training could have a positive impact on your operations? 

 

Talk now with one of our baghouse experts for more information.