FumeKiller model FK3600VEM with Twin Flexible Extractor Arms

FumeKiller FK3600VEM with Twin Extractor Arms for Dual Welding Applications

Delivering Efficient Fume Control for Simultaneous Welding

Powertech Pollution Controls recently completed a project where the requirement was a fume extraction system that can manage to capture and control fumes from two welding applications running at the same time. Welding fumes, if not controlled, reduce air quality, affect worker health, and settle on nearby equipment. To meet this need, our team supplied the FumeKiller model FK3600VEM, fitted with twin flexible extractor arms for effective source capture.

The Challenge: Controlling Fumes from Dual Welding Stations

In this case, the client required a single solution that could capture fumes from two active welding setups. Using two separate units would have consumed more space, energy, and cost. The challenge was to provide one portable system that could extract fumes efficiently from both stations without affecting the welding process.

The Solution: Portable FK3600VEM with Twin Arms

The FK3600VEM is a high-performance electrostatic fume extractor designed for industrial use. For this project, the unit was equipped with twin flexible extractor arms, each with an adjustable suction hood.

Key Features of the Solution

  • Twin Extractor Arms: Allowed simultaneous capture of fumes from two welding stations.
  • Flexible Positioning: The arms could be moved easily to place the hoods close to the fume source, ensuring effective capture without disrupting the welders’ workflow.
  • Portability: The unit could be moved across the shop floor to different areas, offering flexibility for changing production needs.
  • Electrostatic Filtration: Captured fine welding fumes and released clean air back into the workspace.

The Outcome: Cleaner Air and Higher Efficiency

After installation, the client reported significant improvement in workplace air quality. The welding fume extractor successfully handled fumes from two welding stations at once, reducing exposure risks for operators and keeping the shop floor cleaner. The use of a single portable unit instead of two separate systems also saved floor space and lowered operational costs.

Conclusion

This project demonstrates how the FumeKiller can be adapted to meet specific client needs. By equipping the unit with twin flexible arms, Powertech Pollution Controls provided a cost-effective, portable, and efficient solution for controlling welding fumes from dual operations. The result was a cleaner and safer work environment with long-term benefits for both productivity and compliance.

Air Pollution Risks in Food Production and How to Prevent Them

Understanding Air Quality Challenges in Food Production

Food production facilities must meet strict hygiene and safety standards. While focus is often placed on controlling contamination from raw materials and handling, air pollution inside the facility can be just as harmful. Dust, fumes, vapors, and other airborne particles can affect product quality, worker health, and compliance with regulations.

Common Sources of Air Pollution in Food Production

Several processes in food production like mixing and grinding can release various airborne pollutants.

  • Dust from Raw Materials: Grains, flour, sugar, spices, and powdered ingredients release fine dust during handling, mixing, or packaging. This dust can linger in the air and settle on products and equipment. Additionally fine dust from particles like sugar can be hygroscopic and absorb the atmospheric moisture, making it sticky and difficult to clean.
  • Steam and Cooking Vapors: Cooking processes when used in food production can generate steam, oil vapors, and sometimes smoke. Without a proper ventilation system, these pollutants can create condensation, increase humidity, and spread odors within the shopfloor. Additionally, the commonly used equipment like boilers and baking ovens can release gases like carbon dioxide, carbon monoxide and nitrogen oxides.
  • Cleaning and Sanitizing Chemicals: Cleaning processes are done regularly in food processing plants to ensure high levels of cleanliness during the production. Many cleaning agents release fumes that can be harmful if inhaled. Over time, exposure can affect both worker health and the quality of stored products.

Risks of Poor Air Quality in Food Production

Poor air quality can lead to several problems in food production facilities:

  • Product Contamination: Generated dust particles can settle on the raw material used in food production. This can lead to contamination of the final product, affecting taste, texture and safety.
  • Health Issues for Workers: Dust, fumes, or chemical vapors can cause respiratory irritation or long-term health problems.
  • Equipment Damage: Dust and moisture buildup can reduce machine efficiency and lifespan.
  • Lack of Visibility: The floating dust generated during the processes can spread across the shopfloor and severely affect the visibility.
  • Regulatory Non-Compliance: Failure to meet air quality standards can result in penalties or production shutdowns.

How to Prevent Air Pollution in Food Production

  • Install Effective Dust Collection Systems: Making use of a dust collector that employs bag filters or, if necessary, a reverse-pulsed jet dust collector. These systems are capable of capturing fine particles from various food production processes. Additionally a reverse-pulsed jet system is a self-cleaning dust collector which requires less maintenance.
  • Use Proper Ventilation for Cooking Areas: Local exhaust hoods and fume extraction systems can remove steam, smoke, and oil vapors before they spread into the workspace.
  • Control Chemical Fumes: When using cleaning agents, ensure proper ventilation or make use of a chemical fume extractor to keep chemical vapors at safe levels.
  • Maintain Combustion Equipment: Regular inspection and maintenance of ovens, boilers, and burners prevent leaks and ensure that gases are vented safely.
  • Regular Air Quality Monitoring: Testing air quality helps identify problem areas and ensure that control systems are working effectively.

Conclusion

Air pollution in food production is a serious risk to product safety, worker health, and regulatory compliance. By identifying the sources of pollution and installing the right control systems, facilities can maintain clean air, protect their workforce, and ensure the quality of their products. Effective air management is not just a safety requirement — it is a key part of maintaining trust and efficiency in food manufacturing.

FumeKiller® – Portable Welding Fume Extractor for Automated Welding Process

Improving Air Quality in Automated Welding Applications

Powertech Pollution Controls recently implemented a clean air solution for Hyundai Construction Equipment. The requirement was to manage welding fumes generated from an automated welding process on the shop floor. The goal was to improve air quality without interrupting the production flow for which our team provided a solution tailored to meet these needs.

The Challenge: Welding Fumes in a Production Environment

Automated welding operations generate fine fumes that can affect both workers and machinery. These fumes, when not controlled, lower air quality, settle on equipment, and pose health risks. In Hyundai’s case, the need was to have a welding fume extractor to capture these fumes close to the source without obstructing the automated process or limiting access to the workstation.

The Solution: Portable Welding Fume Extractor with Flexible Extractor Arm

To address the problem, Powertech supplied the FumeKiller® model FK3600VEM, a portable fume extractor. This model is designed to move easily across shop floors and deliver strong suction performance. The unit was fitted with a flexible extractor arm, which allows precise positioning of the suction hood. The arm ensures that the fume collection happens right at the source while allowing enough clearance for equipment and process movements.

Why This System Was Chosen

The FK3600VEM was selected for two key reasons. First, its portability made it easy to reposition based on the layout of the automated welding system. Second, the fume extractor arm allowed operators to move the hood close to the fume source without affecting the welding robot or setup. This ensured that the supplied fume extractor was practical, efficient, and non-intrusive.

The Outcome: Cleaner Air and Safer Operations

After installation, Hyundai reported a noticeable improvement in air quality around the welding station. The welding fume extractor captured the fumes effectively, keeping the workspace cleaner and safer. The portable setup also allowed the same unit to be used across different zones when needed, improving overall plant flexibility.

Conclusion

Powertech Pollution Controls delivered a targeted fume extraction solution for Hyundai Construction Equipment by installing a portable FumeKiller model FK3600VEM, with a flexible extractor arm. This setup offered effective fume capture, process compatibility, and ease of movement. As a result, the client achieved better air quality and a safer work environment without interrupting the automation process. This project shows how a well-matched fume extraction system can make a clear difference in real-world industrial settings. For any enquiries to do with a fume extraction system, get in touch with us today.

How to Design a Fume Extraction Layout for Your Facility

Planning for Clean Air in Industrial Workspaces

An efficient fume extraction system is critical in industries where the different processes release harmful airborne pollutants. For such areas, a well-planned fume control system and layout ensures cleaner air and also improves safety, reduces health risks and keeps equipment in a better condition. However, creating such a well planned system requires meticulous planning based on the workflow, equipment and type of pollutants.

Assessment of the Site and Operation

The first step is to understand the layout of the facility and identify the points where fumes are generated. A detailed walkthrough of the workspace can help to list out areas where fumes, smoke, mist, or dust are generated. Identify high-risk zones like welding bays, soldering stations, CNC machines, and chemical mixing areas. Knowing the exact locations of pollutant sources helps determine where extraction systems should be placed.

Choose the Right Type of Extraction System

The choice of system depends on the type and volume of fumes you need to remove. Common options include:

  • Local Exhaust Systems
    • These systems capture fumes right at the source using hoods or arms. They are best for targeted processes like soldering, welding, or grinding.
  • Centralized / Semi-Centralized Ducted Systems
    • These use ductwork to connect multiple workstations to a central filtration unit. Ideal for large facilities where multiple operations run simultaneously.
  • Portable Units
    • For smaller setups or mobile applications, portable fume extractors offer flexibility and ease of use.

Map the Airflow Path

Plan how the contaminated air will move through the system. The airflow should move directly from the fume source to the extraction unit without obstruction. Avoid long, winding ducts that create resistance and reduce suction power. Keep duct lengths short and use smooth bends to improve airflow efficiency.

Position the Extraction Points Properly

Place the suction hood or fume extraction arm as close as possible to the fume generation point. Ideally, the fumes should be captured before it can spread into the general breathing space and atmosphere within the shopfloor. The suction hood should be placed as close as possible to the generation point without disturbing the operation, ideally within 8 – 10 inches. This is to ensure maximum efficiency of extraction of the fumes and smoke. For example, a welding fume extractor will require that the hood be placed within 10 inches to avoid disrupting the operation but a soldering fume extractor can have the hood placed up to 6 inches from the fume generation point.

Choose the Right Filter Type

Different applications require different filters:

  • Use HEPA filters for very fine dust or particles.
  • Use electrostatic filters for smoke and mist from oil-based processes.
  • Use carbon filters for chemical vapors or odors.

Make sure the filtration system matches the type of air pollutants your processes generate.

Ensure Proper Exhaust or Recirculation

Decide whether the filtered air should be vented outside or recirculated back into the workspace. Recirculation saves energy but should only be used when the air is thoroughly cleaned. Venting outside is recommended when dealing with chemical fumes or where regulations demand it.

Allow for Maintenance and Accessibility

Design the system so that all filters, hoods, and ducts are easy to access for cleaning and servicing. Avoid placing ducts behind heavy equipment or in tight corners. Regular maintenance ensures the system runs efficiently and avoids breakdowns.

Follow Local Safety and Air Quality Regulations

Make sure your layout meets safety codes and environmental rules. Different regions have different standards for air quality and workplace ventilation. Consulting with a qualified air quality expert or supplier ensures compliance from the start.

Conclusion

Designing a layout for a fume extractor is not just about placing machines and ducts. It requires a clear understanding of where pollutants are generated, how air moves through the space, and how to capture it effectively. A well-designed layout protects your workers, keeps your processes clean, and helps your business stay compliant with health and safety standards. Planning your layout right from the beginning will lead to long-term savings and a healthier work environment.

Comparison of HEPA vs Electrostatic Filters in Fume Extractors

Choosing the Right Filter for Cleaner Air

Industrial processes like welding, soldering or machining all require efficient fume control
and fume extractors play an important role in maintaining safe air quality. The filters inside a
fume extractor is what traps the airborne pollutants before releasing the air into the
atmosphere or back in to the shopfloor. Generally, these systems make use of either HEPA
filters or Electrostatic filters. It is important to understand the working, advantages and
drawbacks of both type of filters to ensure that you choose the right system for your facility.

What Are HEPA Filters?

HEPA stands for High Efficiency Particulate Air. These filters are made of tightly packed fibers that trap very fine particles as air passes through. They are widely known for their ability to remove up to 99.97% of particles as small as 0.3 microns.

Strengths of HEPA Filters

  • Highly effective at capturing small particles such as smoke, dust, and fine mist.
  • Preferred in environments that demand strict air cleanliness, such as labs and electronics assembly.
  • Easy to replace and commonly available.
  • Has a comparatively lower cost for the same airflow capacity.

Limitations of HEPA Filters

  • Require regular replacement, which adds to running costs.
  • Can restrict airflow if clogged or overloaded.
  • Higher pressure drop in the airflow leads to higher power consumption.
  • Not washable or reusable.

What Are Electrostatic Filters?

Electrostatic filters use electric charges to attract and trap particles. As air flows through the unit, particles are given a charge and then captured by oppositely charged collector plates. These filters are common in welding fume extractors and soldering fume extractors. They also find use in oil mist collectors from neat cutting oil in CNC machining processes.

Strengths of Electrostatic Filters

  • Excellent for capturing oil mist, smoke, and fine fumes.
  • Can capture particles up to 0.01 microns in size.
  • Filters are washable and reusable, lowering long-term costs.
  • Maintain steady airflow since they do not clog like fiber filters.

The parallel plate design ensures lower pressure drop which leads to about 30 – 40% lower power consumption.

Limitations of Electrostatic Filters

  • Require regular cleaning to maintain performance.
  • May not trap larger particles that are typically caught in HEPA filters.
  • Not suitable for dry, fibrous dust in some settings.
  • Involves a higher initial cost for a system of the same air flow capacity.

What Type of Filter Should You Use?

The choice between HEPA and electrostatic filters depends on the type of air pollution in your facility. For very fine dry particles, HEPA filters are ideal. If your process produces oil mist, smoke, or sticky fumes, electrostatic filters offer better performance and lower maintenance.

Quick Comparison between HEPA and Electrostatic Filters

FeatureHEPA FilterElectrostatic Filter
Particle Size Handling0.3 microns and aboveFine particles up to 0.01 microns
ReusabilityNo (disposable)Yes (washable)
MaintenanceFilter replacementRegular cleaning
Best Used AsCleanroom Filters, dry dust filtersWelding fume extracotr, oil mist collector, soldering fume extractor
Cost Over TimeHigher (frequent replacement)Lower (reusable parts)

Conclusion

Both HEPA and electrostatic filters serve an important role in fume extraction systems. HEPA filters are best for high-purity environments where removing fine dust is the priority. Electrostatic filters work better in tough industrial settings with mist and smoke. Choosing the right one depends on the pollutants in your workspace and how often you can maintain the system. A well-matched filter will keep your air clean, reduce health risks, and protect your equipment.