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INDUSTRIAL MATERIAL RECOVERY, DUST CONTROL & PLANT CLEANUP

Industrial Vacuum Cleaners for Dust, Liquids & Metal Chips

Shop Industrial Vacuum Equipment by Category

  • More than 100 industrial vacuums, accessories and spare parts stocked in Kyle, Texas
  • In stock and ready to ship in 24 hours from Kyle, Texas
  • Application-specific configuration and material testing available
  • U.S.-based parts, filter and technical support
Industrial vacuum cleaners for dust collection, liquid recovery, metal chips, powders, combustible dust, hazardous materials, plant cleanup, HEPA filtration, and industrial vacuum system selection.
Three Depureco wet/dry industrial vacuum cleaners on casters; liquid and solid recovery models.

Wet & Dry Industrial Vacuums

Portable recovery for dust, debris, liquids, sludge and general plant maintenance.

Wet and dry industrial vacuum cleaners for liquid recovery, sludge removal, dust collection, debris cleanup, industrial housekeeping, and factory maintenance applications.
Threephase heavy duty industrial vacuums

Heavy-Duty Three-Phase Vacuums

Continuous-duty recovery for production debris, abrasive material and higher daily loads.

Three-phase industrial vacuum cleaners for continuous duty, high suction power, heavy debris removal, bulk material recovery, and industrial production environments.

High-Power Industrial Vacuums

Large-capacity recovery, long hose runs and demanding high-volume cleanup.

High power industrial vacuum cleaners for long-distance suction, high material volumes, central vacuum support, and heavy industrial recovery.
Hepa dust extractors

Industrial HEPA Dust Extractors

High-efficiency filtration and contained-discharge options for fine or hazardous particulate.

HEPA industrial vacuum cleaners for fine dust collection, airborne particle control, silica dust, hazardous dust containment, and clean air compliance in industrial environments.
Lineup of Depureco sump vacuum cleaners with large integrated tanks on red casters in a studio setting.

Sump Vacuums for Coolant & Metal Chips

Recover coolant, oil, chips, swarf and sludge with separation and pump-out options.

Industrial sump vacuums for coolant recovery, metal chips, swarf, sludge removal, CNC machine cleaning, oil separation, and coolant filtration systems.
Three Depureco industrial vacuum configurations for combustible dust and specialized hazardous-duty applications

Explosion-Proof & ORD LOC Vacuums

Material- and location-reviewed configurations for combustible or ignition-sensitive dust.

Explosion proof industrial vacuum cleaners for combustible dust, hazardous environments, classified areas, antistatic vacuum systems, and safe dust collection in high-risk facilities.

Welding Fume Extractors

Portable, extraction-arm and torch-level source capture for welding fumes and smoke.

Welding fume extractors for source capture of fumes, smoke, airborne contaminants, and operator protection in welding and fabrication environments.
Dust collectors

Industrial Dust Collectors

High-airflow source capture at machines, hoods and localized process points.

Industrial dust collectors for airborne dust capture, source extraction, particulate control, and air quality improvement in manufacturing environments.
Central vacuum system with black vertical separator on stand, power unit, and metal ducting; Depureco branding.

Centralized Vacuum Systems

Engineered multi-drop systems for long runs, multiple operators and plant-wide recovery.

Centralized industrial vacuum systems for facility-wide dust collection, pipe network vacuum systems, plant-wide cleaning, and continuous industrial material handling.
Compact vacuums packaging

Compact & OEM-Integrated Vacuums

Machine-mounted dust, trim, powder and production-scrap recovery.

Compact industrial vacuum cleaners for OEM integration, onboard machinery, scrap collection, trim removal, and machine-mounted vacuum applications.
Three Depureco pneumatic (compressed-air) industrial vacuums on wheeled frames, one with a coiled hose, studio backdrop.

Air-Powered Industrial Vacuums

Non-electric compressed-air recovery for applications where pneumatic drive is preferred.

Pneumatic industrial vacuum cleaners powered by compressed air for hazardous environments, explosion risk areas, and facilities without electrical power access.
Accessories

Industrial Vacuum Accessories

Hoses, floor tools, nozzles, filters and application-specific attachments.

Industrial vacuum accessories including hoses, floor tools, nozzles, connectors, brushes, and vacuum attachments for different cleanup applications.
Start with what you need to recover

START WITH WHAT YOU NEED TO RECOVER

Select the Right Industrial Vacuum by Application

Dust and powder. Liquids and sludge. Metal chips and coolant. Combustible dust. Welding fumes. Production debris.

Each material requires a different vacuum design based on suction, filtration, and discharge method.

Shop industrial vacuum cleaners by application including dust and powder collection, liquid recovery, coolant and metal chips, combustible dust, welding fumes, and plant-wide vacuuming.

Industrial Vacuum Solutions for Dust, Solids & Liquids

Different materials require different vacuum configurations.

Fine dust, dense debris, liquids, metal chips, and mixed waste streams affect suction performance, filtration requirements, and system design. Selecting the correct vacuum category ensures consistent performance and reduces downtime.

Industrial vacuum cleaner selection for dust, solids, liquids, debris, metal chips, sludge, powders, and mixed material recovery.

HEPA Filtration and Fine Dust Control

Filtration becomes critical when working with fine or hazardous particles.

Industrial vacuum systems can be configured with high-efficiency filters, including HEPA filtration, to capture fine particulate while maintaining airflow and system performance.


Industrial vacuum filtration systems including HEPA filters for fine dust, hazardous dust containment, air quality control, and industrial dust extraction applications.
Lineup of Depureco industrial vacuum filters and accessories—cartridge, star, and bag filters arranged on a shop floor.
Food production employee using an industrial vacuum to recover spilled flour powder from processing equipment and a conveyor area

Explosion-Proof & Combustible Dust Vacuum Solutions

Not all vacuum systems are suitable for combustible dust environments.

Explosion-proof industrial vacuums are designed for applications where ignition risk, dust hazard, and material sensitivity require specialized equipment and system design.


Explosion proof vacuum systems for combustible dust, hazardous dust collection and recovery, antistatic filtration, grounded systems, and industrial safety compliance.
From daily cleanup to specialized recovery

Industrial Vacuum Solutions for Real Production Environments

Explore vacuum categories for general plant cleaning, fine dust collection, hazardous material recovery, CNC coolant and chip cleanup, welding fume extraction, and centralized system design.


Industrial vacuum solutions for manufacturing, metalworking, dust collection, coolant recovery, hazardous material cleanup, welding fume extraction, and centralized vacuum design.
Tell us what you need to recover and we’ll point you to the right system

Request a Custom Industrial Vacuum Quote

Whether you are vacuuming fine dust, liquids, swarf, coolant, combustible material, or production debris, our team can help narrow the right category and configuration for your application.


Request an industrial vacuum quote for dust collection, liquid recovery, coolant and metal chips, combustible dust, hazardous materials, and production debris cleanup.

Industrial Vacuum Engineering, Filtration & System Selection FAQs

An industrial vacuum is designed around demanding materials, longer operating cycles, larger filter area, more durable construction and configurable collection or discharge methods. The correct system depends on the material, volume, duty cycle and filtration requirements—not suction power alone.

Use an industrial vacuum for settled material, machine cleanup, liquids, chips and debris. Use a dust collector when airborne particulate must be captured at a hood, enclosure or machine connection.

Maximum airflow and maximum vacuum—also called static depression—represent opposite ends of a blower’s performance curve. Maximum CFM is typically measured with minimal restriction, while maximum vacuum occurs near zero airflow. Neither represents the actual operating condition during material pickup.

The useful comparison is the vacuum’s operating point after accounting for the hose diameter and length, vertical lift, elbows, inlet size, filter condition, separator pressure loss and material loading. Airborne dust and light trim generally require more airflow. Dense solids, sludge, long hose runs and vertical conveying place greater demands on vacuum pressure.

Engineers should compare performance under the proposed system resistance, continuous-duty rating and loaded-filter condition—or test the actual material and hose arrangement.

Related Vacuum category:
https://depurecousa.com/heavy-duty-three-phase-industrial-vacuums/

Use the longest and most restrictive pickup route—not the nearest connection—as the design case. Calculate total equivalent length by including straight hose or pipe, elbows, valves, reducers, flexible connections, vertical rise and any pre-separator.

A larger hose reduces friction loss but can allow transport velocity to fall if airflow is insufficient. A smaller hose may maintain velocity but create excessive resistance or clog when carrying chips, stringy swarf, pellets or bulky scrap. Dense material and vertical lift also require enough vacuum pressure to initiate pickup and keep the material moving without repeated slugging.

For fixed piping, verify transport velocity at the most remote branch and under the expected number of simultaneous users.

Related Vacuum category:
https://depurecousa.com/centralized-vacuum-systems/

“Dust,” “chips” and “powder” are not complete material specifications. Selection can change based on:

  • Particle-size distribution and percentage of fines
  • Bulk density
  • Particle or chip shape
  • Moisture, oiliness or stickiness
  • Abrasiveness
  • Temperature
  • Conductivity, combustibility or chemical reactivity
  • Toxicity and required containment
  • Whether the material will be discarded, separated or reclaimed
Long swarf can bridge inside a hose or receiver. Sticky powder can blind filter media. Sand and steel shot can wear through bends and inlets. Dense slurry can settle before discharge. Reactive metal powder can require an entirely different collection strategy than ordinary machining chips. Applications involving variable or difficult material should be tested with a representative sample and the proposed hose arrangement. Related Depureco USA resource: https://depurecousa.com/industrial-vacuum-material-testing/

A pre-separator is valuable when bulk material, chips, abrasive debris or high dust volumes would otherwise fill the main receiver or load the primary filter too quickly. It can increase usable capacity, intercept heavier material and reduce direct impact on the vacuum’s filter.

It is not automatically beneficial in every application. A separator adds pressure loss, hose connections and another potential leak point. Separation efficiency also changes with particle size, bulk density and airflow. Very fine or low-density material may continue to the primary filter, while an incorrectly sized cyclone can reduce pickup performance without providing meaningful separation.

The separator should therefore be sized with the vacuum, material and conveying rate as one system—not added solely by container volume.

Related category: https://depurecousa.com/industrial-vacuum-cyclone-pre-separators/

Duty cycle should be defined by actual operating time, starts per shift, material feed rate and whether the vacuum is used for operator-led cleanup or connected to production equipment.

Portable single-phase units are often well suited to mobile, intermittent and scheduled cleanup. Longer cleaning cycles, repeated per-shift use, machine connection or continuous material generation can justify a continuous-duty three-phase turbine or side-channel blower. Longer conveying distances, higher material rates, large receivers or multiple pickup points may require a high-power or Roots-based package.

Do not use peak horsepower as a substitute for a duty rating. Verify continuous operating limits, relief-valve protection, filter-cleaning method, receiver fill time and the motor’s performance at the expected system resistance.

Related category: https://depurecousa.com/heavy-duty-three-phase-industrial-vacuums/

Machine-source capture depends on airflow through the hood or enclosure, capture velocity at the point of generation and the machine manufacturer’s connection requirements. A high-vacuum unit may produce strong pressure through a small hose but still move too little air through a large extraction port to contain airborne dust.

Industrial vacuums are generally optimized for conveying settled dust, chips and debris through smaller lines. Dust collectors are designed to move greater air volume through hoods, enclosures and larger duct connections. Some processes require both: source capture during production and a separate industrial vacuum for equipment and floor cleanup.

Start with the required airflow at the machine port, hood geometry, connection diameter and process emission rate—not the vacuum’s peak suction number.

Related: https://depurecousa.com/dust-collectors/

Only when the vacuum and collection sequence are configured for those specific materials. A wet-and-dry unit may handle several material states, but mixed pickup can create problems that do not occur during separate dry or wet collection.

Liquid can blind dry filter media. Fine powder can remain suspended in the liquid or create difficult sludge. Long swarf can bridge at the inlet or block a drain. Metal fines may settle in pumps and discharge lines. Mixing materials can also change waste classification, eliminate reuse opportunities or create chemical and reactive hazards.

Specify whether materials are collected simultaneously or sequentially, the solids-to-liquid ratio, chip geometry, settling behavior and required separation. Dedicated equipment may be preferable where contamination, reclaim or hazard control matters.

Related Links:
https://depurecousa.com/wet-and-dry-industrial-vacuum-cleaners/
https://depurecousa.com/sump-vacuums-for-coolant-and-metal-chips/

Begin with what must happen after the material reaches the vacuum. Receiver volume alone does not determine whether the system will be practical.

Fine hazardous dust may call for contained Longopac-style bagging to reduce release during changeout. Heavy chips, shot or sand may require a detachable bin, forklift-handling system, tilting container, drum or hopper. Liquids may require a drain or powered pump-out. Coolant recovery may require solids separation before the liquid returns to a machine tank or storage container. High-volume material may be better discharged into a drum, hopper or Big-Bag.

Calculate fill time, full-container weight, discharge height, operator handling, changeout exposure and the destination container. The preferred discharge workflow can change the correct vacuum family.

Related Page: https://depurecousa.com/industrial-vacuum-cyclone-pre-separators/

The HEPA designation describes filter efficiency; it does not describe the entire containment system. A technical review should also cover:

  • Filter certification and the required H13 or H14 configuration
  • Sealing and possible bypass paths
  • Primary filtration or pre-separation
  • Available filter surface
  • Filter-loading and cleaning strategy
  • Exhaust location
  • Safe filter replacement
  • Dust collection and bag-change exposure
  • Replacement-filter availability
  • Any site-specific leakage-testing or documentation requirements


HEPA filtration does not address combustibility, grounding, area classification or chemical compatibility. Those are separate selection questions.

For high dust loading, protecting the HEPA stage and controlling disposal exposure can be just as important as the filter’s efficiency rating.

Related Link:
https://depurecousa.com/hepa-dust-extractors-longopac-collection/

The material name or SDS is only the starting point. The review may require particle-size information, a facility dust hazard analysis, explosibility data such as Kst, Pmax, MIE, MEC or LOC where applicable, and the cleanup area’s Class/Division/Zone status.

Also identify possible hot particles, the collection and discharge method, conductive continuity through the hose and tools, grounding and bonding provisions, filter media, receiver construction and whether incompatible materials could enter the same system.

An antistatic filter, conductive hose, HEPA filter or air-powered motor does not independently make a vacuum suitable for every combustible-dust application. ORD LOC equipment is intended for an ordinary or non-classified-location path; it is not interchangeable with equipment marked for a classified location.

Related Link: https://depurecousa.com/explosion-proof-industrial-vacuums/

A pneumatic vacuum can be a strong fit when electricity is unavailable, prohibited by facility policy or undesirable for the application. However, selection must account for the plant’s actual compressed-air capacity.

Verify required air consumption and pressure at the point of use, supply-line diameter, pressure loss, concurrent demand from other equipment, compressor duty, moisture and air quality, exhaust behavior, noise and the energy cost of extended operation. A plant may have the correct nominal pressure but insufficient airflow when production equipment is running.

Non-electric operation also does not automatically mean intrinsically safe or suitable for a classified area. That determination depends on the documented model configuration, material and location.

Related Link:
https://depurecousa.com/air-powered-industrial-vacuum-cleaners/

Size the system around simultaneous demand—not the total number of wall inlets. Establish how many operators can use the network at the same time, which combinations are permitted and whether operating procedures will enforce that diversity assumption.

The calculation should include the most remote branch, required transport velocity, branch and main-line pressure losses, hose diameters, vertical sections, material feed rate, filter differential pressure, separator loss and receiver pressure drop. The blower must maintain usable performance at the worst permitted combination of open drops.

Also evaluate material compatibility between departments, receiver capacity, automatic discharge, filter cleaning, controls, redundancy and the consequence of a system outage. Incompatible materials may require separate networks rather than a larger shared system.

Related Link:
https://depurecousa.com/centralized-vacuum-systems/

 

With sand, steel shot, foundry residue, blasting media, scale and mineral fines, the wear path matters as much as suction performance. Damage commonly occurs at pickup tools, flexible hose, tight elbows, reducers, inlets, separator walls and discharge valves.

Specify wear-resistant hose, long-radius bends, replaceable or sacrificial sections, accessible inspection points and a separator or tangential inlet where appropriate. Conveying velocity must remain high enough to prevent settling but should not be increased blindly, because impact wear rises with velocity.

Also identify material temperature and any coating contamination. Hot media, sharp fragments or lead- and chromate-bearing coating residue can change both construction and containment requirements.

Related Page Link:
https://depurecousa.com/heavy-duty-three-phase-industrial-vacuums/

Compare the complete operating workflow rather than purchase price alone.

A mobile fleet provides deployment flexibility, easier isolation between materials and redundancy when one unit is being serviced. Its costs include operator travel, hose setup, storage, multiple filters and spare parts, repeated emptying and inconsistent equipment availability.

A central system can reduce deployment time and standardize pickup points, but it introduces piping, controls, installation, system balancing, centralized maintenance and greater outage consequences. It must also be engineered for simultaneous demand and material compatibility.

Model annual labor, maintenance, energy, receiver handling, production interruption, expansion plans and downtime risk. Some facilities are best served by a hybrid: central service in high-frequency areas and mobile equipment for isolated or incompatible tasks.

Related Page:
https://depurecousa.com/centralized-vacuum-systems/

Provide enough information to reproduce the difficult condition—not merely the desired horsepower or container size:

  • Material name and SDS
  • Representative sample when practical
  • Particle-size range, bulk density and particle shape
  • Wet, dry, oily, sticky or mixed condition
  • Temperature and abrasiveness
  • Maximum volume per hour or shift
  • Largest expected material slug
  • Hose or pipe diameter, total length, bends and vertical lift
  • Number of simultaneous pickup points
  • Available voltage, phase or compressed-air supply
  • Required duty cycle
  • Filtration, exposure and containment requirements
  • Receiver, discharge, disposal or reclaim method
  • Area classification and documentation requirements
  • Footprint, mobility and machine-integration constraints

Material testing is especially valuable for long swarf, sticky powder, dense slurry, low-density trim, abrasive media and applications with long or vertical conveying paths.

Related Page: https://depurecousa.com/industrial-vacuum-material-testing/

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