CASE STUDY – Industrial Dust Collector for Aluminum Swarf on CNC Cutting Machines

CASE STUDY Industrial Dust Collector for Aluminum Swarf on CNC Cutting Machines Aluminum cutting operations—especially for profiles, frames, and fixtures—generate a continuous stream of swarf and residues . If this waste is not collected at the source, it accumulates around the cutting area, causes machine malfunctions, and slows down production. For machines like cutting saws and CNCs, relying on manual cleanup or occasional vacuuming is no longer enough. The most effective way to keep the cutting process under control is to connect a dedicated industrial dust collector that continuously extracts aluminum chips during cutting. This case study shows how Depureco helped an aluminum profile cutting company manage a large volume of aluminum swarf with a customized dust collector , improving productivity and minimizing downtime. Customer Profile & Application The customer is an aluminum prof

Documents continuous aluminum-swarf extraction from a large CNC cutting machine to reduce buildup and downtime.

The customized collector and interface cannot be generalized to every aluminum alloy, particle size or cutting process.


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CASE STUDY – VACUUM FEEDING FOR BRIQUETTING PRESSES

Published Depureco USA first-party case study

CASE STUDY Vacuum Solutions for Briquetting Presses in CNC Metalworking Metal briquetting presses compress loose metal swarf into dense briquettes. This process reduces storage volume, simplifies scrap handling, and improves the melting efficiency of recycling furnaces. However, many plants still move metal chips manually—using bins, forklifts, or conveyors—from CNC machining centers to the briquetting machine. That means more handling, more housekeeping issues, and more time lost between production and recycling. In this case study, Depureco helped a leading automotive components manufacturer design a vacuum-based feeding solution for briquetting presses : an HF high-vacuum unit with a fixed chassis that sucks chips directly from CNC machines and discharges them automatically into the briquetting hopper. Customer Profile & Application The customer is a leading company in automotive comp

Documents continuous vacuum feeding of metal swarf into a briquetting process.

Feed stability depends on swarf geometry, flow rate, pipeline and discharge design.

documents installed or demonstrated product

Explanation: HF 300

Use this reference for qualification and routing. Final product, compliance, filtration, chemical compatibility, and system design decisions require application review.


Case Study: Automatic Installation for Multi-deck ovens

Automatic Vacuum Cleaning System for Multi-deck Ovens: our Case Study Industrial bakeries face strict quality standards to ensure their products meet excellence. Maintaining cleanliness is mandatory in food processing. Employing an industrial vacuum cleaner for ovens enables the simple removal of crumbs, baking residues, and burnt flour, safeguarding against contamination and preserving product quality. Multi-deck ovens are a staple in industrial bakeries, prized for their versatility in simultaneous production. However, their extensive size poses challenges during cleaning, particularly between batches, making it a time-consuming and intricate task. download the full case study Benefits of implementing a vacuum system for multi-deck ovens Advantages of maintaining cleanliness in an industrial bakery , ensuring absence of warm debris, fragments, and scorched flour: Improved product exce

Documents an automated oven-cleaning installation with one vacuum unit, six suction arms and tiltable-bin discharge.

Temperature, cooldown, tool construction and residue conditions must be reviewed for each oven.

Explanation: PUMA 15P


Case Study: Central Vacuum System with Integrated Vibrating Screen

Industry: Chemical Application: Collection of carbon residues of various grain sizes in ATEX zone 22 Customer: Dealer of chemical products Product: Puma 30 S Atex Z22 + cyclonic separator +vibrating screen and steel frame PROBLEM: Multi-Site Dust Collection and Granulometric Separation The customer needed a mobile vacuum system that could operate across multiple sites and be set up quickly . The solution had to deliver the performance of a large-scale system while remaining easy to move, with a modular layout of three configurable modules to adapt to different jobs. It also had to ensure efficient collection of material in big bags, provide particle size separation when required, and guarantee maximum safety when handling potentially explosive dust in an ATEX Zone 22 area. Key priorities included: SAFE ATEX HANDLING MOBILE LARGE-SCALE CAPACITY CONTROLLED DISCHARGE AND SEPARATION Fine car

Documents a central vacuum and vibrating-screen arrangement for carbon separation and Big-Bag discharge.

Powder explosibility, classification, separation efficiency and discharge controls remain application-specific.

Explanation: PUMA 30 P SP


Case Study: Centralized Vacuum System for Welding Fumes

CASE STUDY Centralized Vacuum System for Welding Fumes in a Metalworking Plant In any metalworking shop, welding torches generate a continuous stream of welding fumes carrying hazardous particles and gases. These fumes often contain heavy metals and other substances that can cause respiratory problems and long-term health issues if they are not properly extracted. For a plant with multiple welding stations, relying on a few portable fume extractors or partial ventilation is not enough. Fumes can spread across the production area, exposing workers outside the immediate welding zone and making it harder to meet regulatory limits. This case study shows how Depureco designed a centralized welding fume extraction system with a PUMA FIX 10 central vacuum unit to improve air quality, protect welders, and keep a metalworking plant compliant and under control. Customer Profile & Application The c

Documents centralized source capture from multiple welding stations using a PUMA FIX system.

The case study supports system architecture, not a universal exposure-control guarantee.

Explanation: PUMA FIX 10


Case Study: Efficiently Managing Dry Metal Chips

REMOVE EFFICIENTLY DRY METAL CHIPS CASE STUDY - EFFICIENTLY HANDLING DRY METAL CHIPS A major tractor manufacturer faces a critical need in the final stage of producing its metal components: cleaning steel gearbox blocks of dry metal chips. DOWNLOAD THE FULL CASE STUDY Your need, our solution During machining, metal chips build up on parts, affecting both quality and efficiency. Steel or cast iron gearbox blocks must be thoroughly cleaned to remove leftover chips before the next assembly steps. Quick and efficient cleaning of these components is crucial to: Avoid damage: Residual metal shavings can damage the most delicate components; Prevent blockages: Chip buildup can clog machinery; Ensure production continuity: Fast and effective chip removal is essential to keep production running smoothly. To address this need, we implemented a complete solution integrated with every CNC machine in

Documents four HF 300 stationary vacuums cleaning gearbox blocks in under two minutes and discharging chips to CNC collection.

Cycle time and discharge performance apply to the documented parts, chip load and installation.

Explanation: HF 300


Cement Plant Dust Control Vacuum Systems for Cement Powder Cleanup

Recover cement dust before it becomes a safety, maintenance, and uptime problem. Cement plant dust control is not just a housekeeping issue. Cement production, conveying, packing, silo loading, and bulk transfer can create fine cement powder, concrete dust, product spills, and heavy debris that collect around conveyors, bucket elevator pits, machinery, floors, structural surfaces, trucks, and loading zones. Utilizing industrial vacuum systems in cement plants can lead to substantial reductions in: Minimizing product spillage and material wastage Streamlining plant maintenance, reducing time and costs Enhancing worker safety by mitigating health risks and preventing accidents Mitigating unforeseen production disruptions and inefficiencies. Where Cement Dust Builds Up Inside a Plant Target the areas where dust buildup creates the most downtime. Cement dust and powder do not collect in one

Explains plant-wide cement dust collection points, system-selection factors and maintenance/uptime benefits.

Educational application evidence; it is not a single installed-customer performance record.


Centralized vacuum system for welding fumes |  Case Study

In a metalworking setting where welding torches are utilized, the creation of welding fumes poses a considerable hazard. These fumes carry dangerous substances and heavy metals that , when breathed in, can result in respiratory issues and other health complications. Installing a centralized welding fume extraction system is vital for protecting the welfare of workers. These systems efficiently nab and eliminate perilous fumes from various sources at once. Advantages of maintaining a metalworking industry free from welding fumes When companies invest in welding fume extractors , they not only comply with safety regulations but also demonstrate a firm commitment to providing a safe and secure work environment for their employees. A welding fume extraction system: Boosts worker safety; Enables industries to meet regulations; Enhances air quality. Welding Fume Central Vacuum System: Our Case

Documents a multi-station centralized welding-fume system with long piping, seven inlets and up to three simultaneous pickup points.

Capture performance depends on hood/torch design, process, alloy, airflow, ducting and commissioning.

Explanation: PUMA FIX 10


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Depureco-hosted product image referenced by product records

Product identification and visual context only

Product visual associated with one or more product records.

Supports visual identification and page presentation.

A product image is not performance, compliance, compatibility or application evidence.


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ECOBULL TAN Foundry Housekeeping & Drill Chips

Current Depureco Labs page and first-party YouTube video

Foundry dust and debris, slag, drill chips and mixed dry material

ECOBULL TAN recovers customer-supplied foundry housekeeping debris, metal slag and drill chips.

The video documents one-unit recovery of mixed dry foundry material.

Temperature, reactivity, combustibility, abrasiveness and production volume still require application review.

Depureco Labs page snapshot modified 2026-07-17

demonstrates exact model or named family

Explanation: ECOBULL TAN

Explanation: Foundry housekeeping and chip recovery


Heavy Dairy Cream VS RAM 200

Heavy dairy cream and thinner dairy liquid

RAM 200 tested with a separator, 50 mm antistatic hose, S-pipe, squeegee and flat pipe in an ice-cream production application.

The thinner liquid recovered readily while the thick cream clogged the separator inlet.

This is useful negative and positive evidence for one setup; it does not establish hygienic design, food-contact approval or universal viscosity limits.

Explanation: RAM OIL 200 MP

Explanation: Food-production wet recovery test


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How a Texas Gun Range Keeps Lanes Cleaner, Faster, Safer

Road Trip to The Sharp Shooter We traveled down to the Texas coast to visit one of our customers— The Sharp Shooter to tour their shop and indoor range, and see how they’re liking their BL 45 JC Z22 in real-world use. We also brought a few bonus tools (new vacuum nozzles/attachments) to test on stalls, benches, and tight corners. If you manage an indoor range and you’re shopping for cleaning, safety, and maintenance equipment , this visit shows exactly how a purpose-built range vacuum transforms nightly housekeeping. The Sharp Shooter's manager, Aric walked us through the shop and into the lanes, then fired up the BL 45 JC Z22 for a live demonstration: Long passes down each lane with the S-pipe + floor brush. Edges & benches with crevice and round tools. Trap/rail touch-ups with antistatic accessories. Real-World Test: BL 45 at The Sharp Shooter https://www.youtube.com/watch?v=Iz87WQt9zz

Documents real-world range-lane, bench and corner cleanup with a BL 45 configuration and antistatic accessories.

The page does not replace a range-specific lead, combustible-residue, disposal or area-classification review.

Explanation: BL 45 JC ORD LOC


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INDUSTRIAL_EXTRACTOR_USA.pdf

Depureco-hosted technical document referenced by product records

Document referenced by the current product knowledge record.

Supports product identity, technical specifications and configuration review.

Verify document revision, market version and exact model before using a specification or compliance statement.


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M100 TAN Metal Chips & Swarf Demo

Oily rusted machining chips, metal chunks, mixed swarf and stringy strands

M100 TAN tested on compacted and loosened machine-shop chips using several pickup tools.

The published description records that loosened material recovered more cleanly than the compacted shipping sample.

The demonstration shows one sample condition; bridging, compaction, oil content and chip geometry can change results.

Explanation: M100 TAN

Explanation: Metal chip and swarf recovery


M100 TAN Shot Blasting Media Test

S230–S280 shot blasting media / steel shot

Industrial production cleanup and abrasive-media recovery

M100 TAN tested with a 2-inch hose on S230–S280 steel shot using a metal scraping pipe and an adjustable PRO floor brush.

The published test documents pickup of dense steel shot with two floor-tool approaches.

The result applies to the recorded material, quantity, hose, tool and setup; it is not a universal performance rating.

Explanation: M100 TAN


M100 TAN VS ECOBULL TAN

Foundry dust, metal slag, drill chips and mixed foundry debris

A potential buyer supplied foundry housekeeping material so M100 TAN and ECOBULL TAN could be tested with multiple tools.

The video provides a side-by-side application demonstration for mixed foundry debris.

A comparative demonstration is not a universal ranking; the correct unit depends on quantity, duty cycle, filtration, collection and tools.

Explanation: M100 TAN and ECOBULL TAN

Explanation: M100 TAN and ECOBULL TAN

Explanation: Foundry housekeeping comparison


M100 TAN vs Steel Cutouts & Aluminum Drill Spirals

Steel cutouts, steel slugs, aluminum drill spirals and shavings

M100 TAN tested on customer-supplied steel cutouts, aluminum spiral strands and mixed dry fabrication scrap.

The test documents pickup of mixed shapes and densities using a compact industrial vacuum.

The recorded sample does not establish capacity for continuous high-volume scrap or compacted nests.

Explanation: M100 TAN

Explanation: Mixed dry fabrication scrap recovery

Explanation: Mixed dry fabrication scrap recovery


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PUMA 20 SP Aluminum Drill Shavings & Chips

Dry aluminum drill shavings and machining chips

PUMA 20 SP tested with an antistatic hose and 50 mm conic nozzle on aluminum drill shavings and chips.

The video demonstrates a heavy three-phase setup for loose aluminum machining debris.

Loose chips differ from compacted bird nests, reactive fine powder and oil-saturated swarf.

Explanation: PUMA 20 SP

Explanation: Heavy-duty metal-chip recovery

Explanation: Heavy-duty metal-chip recovery


PUMA Series Destroys Aluminum Birdnests & Long Swarf

Thick aluminum bird nests, long spiral swarf and machining chips

A customer supplied tangled aluminum swarf for a PUMA test using a 70 mm hose and straight pipe with extension handle.

The setup pulled in and broke apart the recorded tangled swarf quickly.

The result is specific to the 70 mm setup and sample; material reactivity, fines, oil content and continuous feed require separate review.

Explanation: PUMA Series / PUMA 20 SP setup

Explanation: PUMA Series / PUMA 20 SP setup

Explanation: Long-swarf and bird-nest recovery

Explanation: Long-swarf and bird-nest recovery


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TX 400 S Wet Plastic & Rubber Fines Test

Wet plastic and rubber fines in water with thick greasy sludge

TX 400 SP tested with a scraping pipe and 50 mm antistatic hose on wet plastic and rubber fines suspended in water.

The test records recovery behavior for a heavy wet fines/slurry mixture.

The recorded mixture and setup do not establish chemical compatibility or universal slurry suitability.

Explanation: TX 400 SP

Explanation: Wet and dry cleanup


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Vacuum Solutions for Briquetting Presses – Case Study

PROBLEM Our client needed to vacuum metal chips directly from CNC machinery to automatically load their briquetting machines. The briquetting machine compresses metal waste using high pressure into briquettes. It's typically used to reduce storage costs and streamline recycling operations. SOLUTION Metal chips are collected inside the CNC machinery and then conveyed through a pipeline to the Depureco HF vacuum and subsequently discharged into the briquetting machine's hopper. OPERATING PRINCIPLE The vacuum is generated by a side channel turbine; The material enters the vacuum, encounters a metal cyclone, loses speed, and falls into the collection hopper; The filter safeguards the motor from materials that might ascend and damage it; The collected material is automatically discharged (various discharge options are available). Download the PDF Go to the product

Documents automatic chip transfer from CNC machinery through an HF vacuum into a briquetting-machine hopper.

The design is application-specific and depends on chip form, pipeline, discharge and press interface.

Explanation: HF 300


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M100 TAN Shot Blasting Media Test

M100 TAN VS ECOBULL TAN

M100 TAN Metal Chips & Swarf Demo

Heavy Dairy Cream VS RAM 200

Temperature, cooldown, tool construction and residue conditions must be reviewed for each oven.

Cycle time and discharge performance apply to the documented parts, chip load and installation.

Powder explosibility, classification, separation efficiency and discharge controls remain application-specific.

CASE STUDY – INDUSTRIAL BAKERY OVEN CLEANING

Maximum pickup temperature and safe cleaning procedure depend on the exact configuration and operating method.

The case study supports system architecture, not a universal exposure-control guarantee.

Feed stability depends on swarf geometry, flow rate, pipeline and discharge design.

CASE STUDY – ATEX CENTRAL VACUUM FOR GRAIN MILLS

ATEX configuration and protection design must match the actual Zone, material and installation documentation.

CASE STUDY – Industrial Dust Collector for Aluminum Swarf on CNC Cutting Machines

The customized collector and interface cannot be generalized to every aluminum alloy, particle size or cutting process.

CASE STUDY – CENTRAL VACUUM FOR DRY METAL CHIPS

The recorded cycle and integration are specific to the customer's parts and CNC collection system.

CASE STUDY – CENTRAL VACUUM FOR POLYETHYLENE FILAMENTS

Continuous handling depends on filament behavior, separator sequencing, controls and discharge.

CASE STUDY – ATEX CENTRAL VACUUM FOR PEAT DUST

The system applies to the documented Zone and dust; pharmaceutical validation and containment requirements remain site-specific.

USA_SINGLEPHASE_CATALOG.pdf

Verify document revision, market version and exact model before using a specification or compliance statement.

INDUSTRIAL_EXTRACTOR_USA.pdf

THREEPHASE_USA.pdf

USA_CENTRALIZED-VACUUM-SYSTEM.pdf

USA_FLOOR-PREPARATION_CATALOG.pdf

USA_OIL-SWARF-CATALOG.pdf

USA_FLOOR-PREPARATION_CATALOG-1.pdf

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USA_OIL-SWARF-CATALOG-1.pdf

Ram-Oil-500-MP_External-Pump.pdf

BL-45-JC-1.pdf

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Environmental Health and Safety Engineer

Exposure, housekeeping methods, combustible dust, silica, lead and evidence.

Hazard, area classification, containment, filtration and procedural defensibility.

What is the material hazard?
What is the area classification?
What evidence covers the complete path?

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Hazard review; Application review; Material test

Describe job functions and evidence needs only; do not profile an individual or expose private CRM or personal-trait fields.


Manufacturing Engineer
Process Engineer
Mechanical Engineer
Project Engineer

Application fit, material behavior, integration, filtration, utilities and discharge.

Material fit, operating envelope, configuration logic, utilities and integration risk.

What material and state?
What distance and duty?
What filtration and discharge?

Datasheet
Material test
Configuration diagram
Exact model evidence

Application review; System design; Depureco Labs


Owner
President
CEO
Managing Partner
General Manager

Capital priorities, plant economics, supplier risk and operational performance.

ROI, labor leverage, downtime avoided, scope, support and risk reduction.

What changes operationally and financially?

ROI assumptions
Case study
Implementation scope
Support plan

Application review; System design; Configured quote


Maintenance Manager
Maintenance Supervisor
Facilities Manager
Reliability Manager

Recurring cleanup, PM, access, filter service, spares and maintainability.

Filter cleaning, clog resistance, access, emptying, service and parts.

How is the filter cleaned?
What can clog?
How is material emptied?

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Application review; Maintenance review; Quote


Plant Manager
Operations Manager
Production Manager
Manufacturing Manager

Daily output, schedules, labor, process flow, housekeeping and uptime.

Cycle time, repeatability, operator adoption, production disruption and ruggedness.

Will it fit the production window?
Can shifts repeat the method?
How is material emptied?

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Application review; Material test; Product match


Production Supervisor
Manufacturing Supervisor
Machine Shop Supervisor

Daily cleanup execution, operator adoption, changeovers and shift tasks.

Setup time, ergonomics, training, ease of use and visible time savings.

Will the crew use it?
How long does setup take?
What daily checks are needed?

Operator demo
Tool setup
Material test
Daily checklist


Purchasing Manager
Buyer
Procurement Manager
Sourcing Manager

Commercial scope, lead time, warranty, landed cost, consumables and support.

Configured inclusions, lead time, warranty, recurring parts and supplier support.

What is included?
What recurs?
Has technical scope been normalized?

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


Quality Manager
QA Manager
CI Lead
Lean Manager
Sanitation Manager

Contamination control, repeatability, standard work and process consistency.

Containment, repeatability, cleanability, changeover and documentation.

Can it be standardized?
How is contamination controlled?
How is the result verified?

Standard-work outline
Containment evidence
Changeover example
Case study

Process review; Material test; Application review


Coolant sump cleaning and wet chip recovery

Question: How should coolant sump cleaning and wet chip recovery fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Sump volume; chip geometry; sludge; reuse; pump-back distance. Review the linked first-party proof within its documented material and setup boundary. Continue with request sump review at https://depurecousa.com/sump-vacuums-for-coolant-and-metal-chips/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for coolant, oil, chips, swarf, sludge?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Sump volume; chip geometry; sludge; reuse; pump-back distance. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/sump-vacuums-for-coolant-and-metal-chips/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this coolant sump cleaning and wet chip recovery workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Sump volume; chip geometry; sludge; reuse; pump-back distance. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/sump-vacuums-for-coolant-and-metal-chips/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What must be defined before comparing proposals for coolant sump cleaning and wet chip recovery?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/sump-vacuums-for-coolant-and-metal-chips/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in coolant sump cleaning and wet chip recovery?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request sump review at https://depurecousa.com/sump-vacuums-for-coolant-and-metal-chips/.

ROI assumptions
Case study
Implementation scope
Support plan

Question: Will operators use the coolant sump cleaning and wet chip recovery method consistently without slowing the line?

Answer: Verify setup time, tool ergonomics, training, daily checks, emptying and practical shift use. Confirm Sump volume; chip geometry; sludge; reuse; pump-back distance. Review the linked first-party proof within its documented material and setup boundary. Review the operator workflow through https://depurecousa.com/sump-vacuums-for-coolant-and-metal-chips/.

Operator demo
Tool setup
Material test
Daily checklist


Welding fume source capture and dry debris cleanup

Question: What will maintenance need to service, clean and empty in this welding fume source capture and dry debris cleanup workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Process/alloy; stations; capture method; duty cycle. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/welding-fume-extractors-2/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for welding fumes, smoke, grinding dust, metal fines?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/welding-fume-extractors-2/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for welding fume source capture and dry debris cleanup?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/welding-fume-extractors-2/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in welding fume source capture and dry debris cleanup?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request fume review at https://depurecousa.com/welding-fume-extractors-2/.

ROI assumptions
Case study
Implementation scope
Support plan

Question: Will operators use the welding fume source capture and dry debris cleanup method consistently without slowing the line?

Answer: Verify setup time, tool ergonomics, training, daily checks, emptying and practical shift use. Confirm Process/alloy; stations; capture method; duty cycle. Review the linked first-party proof within its documented material and setup boundary. Review the operator workflow through https://depurecousa.com/welding-fume-extractors-2/.

Operator demo
Tool setup
Material test
Daily checklist


Lane 03 Construction Concrete Floor Prep

Question: What business result would justify investing in tool-side silica dust extraction?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request fine-dust review at https://depurecousa.com/dust-extractors-floor-preparation/.

ROI assumptions
Case study
Implementation scope
Support plan

Question: How should tool-side silica dust extraction fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Tool airflow; work duration; disposal; H13/H14; portability. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request fine-dust review at https://depurecousa.com/dust-extractors-floor-preparation/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What hazard, exposure and evidence must be confirmed for silica and concrete dust?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/dust-extractors-floor-preparation/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for tool-side silica dust extraction?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Request the configured scope through https://depurecousa.com/dust-extractors-floor-preparation/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: Will operators use the tool-side silica dust extraction method consistently without slowing the line?

Answer: Verify setup time, tool ergonomics, training, daily checks, emptying and practical shift use. Confirm Tool airflow; work duration; disposal; H13/H14; portability. No direct first-party proof is mapped, so use a representative Depureco Labs test. Review the operator workflow through https://depurecousa.com/dust-extractors-floor-preparation/.

Operator demo
Tool setup
Material test
Daily checklist


Ingredient powder and line-side housekeeping

Question: How should ingredient powder and line-side housekeeping fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Ingredient; allergen; sanitation zone; combustible-dust profile; disposal. Review the linked first-party proof within its documented material and setup boundary. Continue with request food application review at https://depurecousa.com/industrial-vacuum-cleaners-food-industry/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What will maintenance need to service, clean and empty in this ingredient powder and line-side housekeeping workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Ingredient; allergen; sanitation zone; combustible-dust profile; disposal. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/industrial-vacuum-cleaners-food-industry/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for flour, sugar, cocoa, spices, crumbs, liquids?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/industrial-vacuum-cleaners-food-industry/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: How can the ingredient powder and line-side housekeeping process be standardized and verified?

Answer: Define standard work, containment or cross-contact controls, changeover, collection/disposal and verification. Confirm Ingredient; allergen; sanitation zone; combustible-dust profile; disposal. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/industrial-vacuum-cleaners-food-industry/.

Standard-work outline
Containment evidence
Changeover example
Case study

Question: What must be defined before comparing proposals for ingredient powder and line-side housekeeping?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/industrial-vacuum-cleaners-food-industry/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in ingredient powder and line-side housekeeping?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request food application review at https://depurecousa.com/industrial-vacuum-cleaners-food-industry/.

ROI assumptions
Case study
Implementation scope
Support plan


Question: How should hot crumb and residue cleanup fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Pickup temperature; cooling interval; reach; residue; shutdown window. Review the linked first-party proof within its documented material and setup boundary. Continue with request oven review at https://depurecousa.com/vacuum-solutions-ovens-bakeries/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What will maintenance need to service, clean and empty in this hot crumb and residue cleanup workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Pickup temperature; cooling interval; reach; residue; shutdown window. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/vacuum-solutions-ovens-bakeries/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: How can the hot crumb and residue cleanup process be standardized and verified?

Answer: Define standard work, containment or cross-contact controls, changeover, collection/disposal and verification. Confirm Pickup temperature; cooling interval; reach; residue; shutdown window. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/vacuum-solutions-ovens-bakeries/.

Standard-work outline
Containment evidence
Changeover example
Case study

Question: What must be defined before comparing proposals for hot crumb and residue cleanup?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/vacuum-solutions-ovens-bakeries/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


Lane 06 Pharma Nutraceutical Life Sciences

Question: How should contained fine-powder recovery fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Potency; exposure; containment; contact surfaces; changeover; disposal. Review the linked first-party proof within its documented material and setup boundary. Continue with request containment review at https://depurecousa.com/food-pharma-oem-industrial-vacuums/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for apis, excipients, tablet dust, nutraceutical powders?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Potency; exposure; containment; contact surfaces; changeover; disposal. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/food-pharma-oem-industrial-vacuums/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What hazard, exposure and evidence must be confirmed for apis, excipients, tablet dust, nutraceutical powders?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/food-pharma-oem-industrial-vacuums/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: How can the contained fine-powder recovery process be standardized and verified?

Answer: Define standard work, containment or cross-contact controls, changeover, collection/disposal and verification. Confirm Potency; exposure; containment; contact surfaces; changeover; disposal. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/food-pharma-oem-industrial-vacuums/.

Standard-work outline
Containment evidence
Changeover example
Case study

Question: What must be defined before comparing proposals for contained fine-powder recovery?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/food-pharma-oem-industrial-vacuums/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


Question: What technical inputs determine the correct configuration for paper trim, film, corrugated dust, fibers?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Trim rate; dimensions; machine footprint; continuous duty; discharge. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/customized-industrial-vacuums-integration-oem/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this continuous trim and scrap extraction workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Trim rate; dimensions; machine footprint; continuous duty; discharge. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/customized-industrial-vacuums-integration-oem/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What must be defined before comparing proposals for continuous trim and scrap extraction?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/customized-industrial-vacuums-integration-oem/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: Will operators use the continuous trim and scrap extraction method consistently without slowing the line?

Answer: Verify setup time, tool ergonomics, training, daily checks, emptying and practical shift use. Confirm Trim rate; dimensions; machine footprint; continuous duty; discharge. Review the linked first-party proof within its documented material and setup boundary. Review the operator workflow through https://depurecousa.com/customized-industrial-vacuums-integration-oem/.

Operator demo
Tool setup
Material test
Daily checklist


Question: How should pellet, regrind and fine recovery fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Pellet/fine ratio; static; reuse; rate; discharge; integration. Review the linked first-party proof within its documented material and setup boundary. Continue with request plastics application review at https://depurecousa.com/tag/plastics-rubber-processing/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for pellets, flakes, regrind, carbon black, polymer fines?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Pellet/fine ratio; static; reuse; rate; discharge; integration. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/tag/plastics-rubber-processing/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this pellet, regrind and fine recovery workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Pellet/fine ratio; static; reuse; rate; discharge; integration. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/tag/plastics-rubber-processing/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What must be defined before comparing proposals for pellet, regrind and fine recovery?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/tag/plastics-rubber-processing/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: Will operators use the pellet, regrind and fine recovery method consistently without slowing the line?

Answer: Verify setup time, tool ergonomics, training, daily checks, emptying and practical shift use. Confirm Pellet/fine ratio; static; reuse; rate; discharge; integration. Review the linked first-party proof within its documented material and setup boundary. Review the operator workflow through https://depurecousa.com/tag/plastics-rubber-processing/.

Operator demo
Tool setup
Material test
Daily checklist


Lane 09 Electronics Battery Esd Sensitive Manufacturing

Electronics, Battery & ESD-Sensitive Manufacturing

Fine conductive-powder and contamination cleanup

Question: What technical inputs determine the correct configuration for graphite, carbon black, battery powder, fine process dust?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Powder; conductivity; process zone; area classification; contamination limits. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/high-performance-vacuums-for-lithium-battery-production/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this fine conductive-powder and contamination cleanup workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Powder; conductivity; process zone; area classification; contamination limits. No direct first-party proof is mapped, so use a representative Depureco Labs test. Review maintainability through https://depurecousa.com/high-performance-vacuums-for-lithium-battery-production/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for graphite, carbon black, battery powder, fine process dust?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/high-performance-vacuums-for-lithium-battery-production/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: How can the fine conductive-powder and contamination cleanup process be standardized and verified?

Answer: Define standard work, containment or cross-contact controls, changeover, collection/disposal and verification. Confirm Powder; conductivity; process zone; area classification; contamination limits. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/high-performance-vacuums-for-lithium-battery-production/.

Standard-work outline
Containment evidence
Changeover example
Case study

Question: What must be defined before comparing proposals for fine conductive-powder and contamination cleanup?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Request the configured scope through https://depurecousa.com/high-performance-vacuums-for-lithium-battery-production/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in fine conductive-powder and contamination cleanup?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request powder review at https://depurecousa.com/high-performance-vacuums-for-lithium-battery-production/.

ROI assumptions
Case study
Implementation scope
Support plan


Lane 10 Additive Manufacturing 3D Printing

Question: How should powder recovery and machine cleanup fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Alloy/polymer; reactivity; particle size; area; reclaim; inerting. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request am powder review at https://depurecousa.com/additive-manufacturing-vacuums/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for metal powder, polymer powder, soot, support material?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Alloy/polymer; reactivity; particle size; area; reclaim; inerting. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/additive-manufacturing-vacuums/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What hazard, exposure and evidence must be confirmed for metal powder, polymer powder, soot, support material?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/additive-manufacturing-vacuums/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: How can the powder recovery and machine cleanup process be standardized and verified?

Answer: Define standard work, containment or cross-contact controls, changeover, collection/disposal and verification. Confirm Alloy/polymer; reactivity; particle size; area; reclaim; inerting. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/additive-manufacturing-vacuums/.

Standard-work outline
Containment evidence
Changeover example
Case study

Question: What must be defined before comparing proposals for powder recovery and machine cleanup?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Request the configured scope through https://depurecousa.com/additive-manufacturing-vacuums/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in powder recovery and machine cleanup?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request am powder review at https://depurecousa.com/additive-manufacturing-vacuums/.

ROI assumptions
Case study
Implementation scope
Support plan


Lane 11 Combustible Dust Hazard Sensitive Housekeeping

Broad combustible-dust hub versus product-category boundaries and evidence links require final review.

Combustible Dust & Hazard-Sensitive Housekeeping

Question: How should housekeeping method selection fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm DHA/SDS; area classification; material data; conductive path; disposal. Review the linked first-party proof within its documented material and setup boundary. Continue with request hazard review at https://depurecousa.com/combustible-dust-vacuum-systems/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for combustible organic dust; metal powder; carbon dust?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm DHA/SDS; area classification; material data; conductive path; disposal. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/combustible-dust-vacuum-systems/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this housekeeping method selection workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm DHA/SDS; area classification; material data; conductive path; disposal. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/combustible-dust-vacuum-systems/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for combustible organic dust; metal powder; carbon dust?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/combustible-dust-vacuum-systems/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for housekeeping method selection?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/combustible-dust-vacuum-systems/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in housekeeping method selection?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request hazard review at https://depurecousa.com/combustible-dust-vacuum-systems/.

ROI assumptions
Case study
Implementation scope
Support plan


Lane 12 Chemical Petrochemical Processing

No-electric, fine-powder or wet/dry cleanup

Question: How should no-electric, fine-powder or wet/dry cleanup fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Chemistry; compatibility; flash point; area; compressed air; disposal. Review the linked first-party proof within its documented material and setup boundary. Continue with request chemical application review at https://depurecousa.com/tag/chemical-petrochemical-processing/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for chemical powders, resins, liquids, residues?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Chemistry; compatibility; flash point; area; compressed air; disposal. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/tag/chemical-petrochemical-processing/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this no-electric, fine-powder or wet/dry cleanup workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Chemistry; compatibility; flash point; area; compressed air; disposal. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/tag/chemical-petrochemical-processing/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for chemical powders, resins, liquids, residues?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/tag/chemical-petrochemical-processing/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for no-electric, fine-powder or wet/dry cleanup?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/tag/chemical-petrochemical-processing/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


Dense abrasive dust and bulk-spill recovery

Question: How should dense abrasive dust and bulk-spill recovery fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Density; abrasion; material rate; distance; duty; discharge. Review the linked first-party proof within its documented material and setup boundary. Continue with request heavy-duty review at https://depurecousa.com/tag/mining-cement-minerals/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for cement, lime, silica, aggregate fines, baghouse dust?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Density; abrasion; material rate; distance; duty; discharge. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/tag/mining-cement-minerals/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this dense abrasive dust and bulk-spill recovery workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Density; abrasion; material rate; distance; duty; discharge. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/tag/mining-cement-minerals/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for cement, lime, silica, aggregate fines, baghouse dust?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/tag/mining-cement-minerals/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for dense abrasive dust and bulk-spill recovery?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/tag/mining-cement-minerals/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in dense abrasive dust and bulk-spill recovery?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request heavy-duty review at https://depurecousa.com/tag/mining-cement-minerals/.

ROI assumptions
Case study
Implementation scope
Support plan


Question: What business result would justify investing in rugged mixed-material cleanup?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request heavy-duty review at https://depurecousa.com/tag/recycling-waste-management/.

ROI assumptions
Case study
Implementation scope
Support plan

Question: How should rugged mixed-material cleanup fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Material mix; density; abrasiveness; distance; bulk discharge. Review the linked first-party proof within its documented material and setup boundary. Continue with request heavy-duty review at https://depurecousa.com/tag/recycling-waste-management/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What will maintenance need to service, clean and empty in this rugged mixed-material cleanup workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Material mix; density; abrasiveness; distance; bulk discharge. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/tag/recycling-waste-management/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What must be defined before comparing proposals for rugged mixed-material cleanup?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/tag/recycling-waste-management/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


Air-powered and wet/dry hazard-sensitive cleanup

Question: How should air-powered and wet/dry hazard-sensitive cleanup fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Area classification; compressed air; chemistry; wet/dry mix; hose distance. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request air-powered review at https://depurecousa.com/tag/oil-gas-offshore-onshore/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What will maintenance need to service, clean and empty in this air-powered and wet/dry hazard-sensitive cleanup workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Area classification; compressed air; chemistry; wet/dry mix; hose distance. No direct first-party proof is mapped, so use a representative Depureco Labs test. Review maintainability through https://depurecousa.com/tag/oil-gas-offshore-onshore/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for liquids, coating debris, blasting media, residues?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/tag/oil-gas-offshore-onshore/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for air-powered and wet/dry hazard-sensitive cleanup?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Request the configured scope through https://depurecousa.com/tag/oil-gas-offshore-onshore/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


Lead/GSR recovery and contained housekeeping

Question: What business result would justify investing in lead/gsr recovery and contained housekeeping?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request range review at https://depurecousa.com/shooting-range-vacuum-hepa-atex/.

ROI assumptions
Case study
Implementation scope
Support plan

Question: What will maintenance need to service, clean and empty in this lead/gsr recovery and contained housekeeping workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Range protocol; lead handling; disposal; combustible residue; filter class. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/shooting-range-vacuum-hepa-atex/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for lead dust, primer residue, brass, fines?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/shooting-range-vacuum-hepa-atex/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for lead/gsr recovery and contained housekeeping?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/shooting-range-vacuum-hepa-atex/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


Lane 17 Woodworking Furniture Production

Source capture and settled-dust housekeeping

Question: How should source capture and settled-dust housekeeping fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Source capture vs housekeeping; combustibility; volume; ducting. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request wood-dust review at https://depurecousa.com/tag/woodworking-furniture-production/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What will maintenance need to service, clean and empty in this source capture and settled-dust housekeeping workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Source capture vs housekeeping; combustibility; volume; ducting. No direct first-party proof is mapped, so use a representative Depureco Labs test. Review maintainability through https://depurecousa.com/tag/woodworking-furniture-production/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for sawdust, sanding dust, wood fines, shavings?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. No direct first-party proof is mapped, so use a representative Depureco Labs test. Use https://depurecousa.com/tag/woodworking-furniture-production/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for source capture and settled-dust housekeeping?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Request the configured scope through https://depurecousa.com/tag/woodworking-furniture-production/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: Will operators use the source capture and settled-dust housekeeping method consistently without slowing the line?

Answer: Verify setup time, tool ergonomics, training, daily checks, emptying and practical shift use. Confirm Source capture vs housekeeping; combustibility; volume; ducting. No direct first-party proof is mapped, so use a representative Depureco Labs test. Review the operator workflow through https://depurecousa.com/tag/woodworking-furniture-production/.

Operator demo
Tool setup
Material test
Daily checklist


Abrasive-duty cleanup and hazard qualification

Question: How should abrasive-duty cleanup and hazard qualification fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Temperature; abrasion; alloy/reactivity; source capture; distance; discharge. Review the linked first-party proof within its documented material and setup boundary. Continue with request foundry review at https://depurecousa.com/industrial-vacuuming-solutions-industry/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for foundry sand, slag, refractory dust, metal fines?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Temperature; abrasion; alloy/reactivity; source capture; distance; discharge. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/industrial-vacuuming-solutions-industry/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this abrasive-duty cleanup and hazard qualification workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Temperature; abrasion; alloy/reactivity; source capture; distance; discharge. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/industrial-vacuuming-solutions-industry/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What hazard, exposure and evidence must be confirmed for foundry sand, slag, refractory dust, metal fines?

Answer: Start with exact material, exposure, SDS/DHA when applicable, area classification, complete path and disposal. Equipment supports a method but does not certify the facility. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/industrial-vacuuming-solutions-industry/.

SDS/DHA
Product marking
Certificate/declaration
Grounding path

Question: What must be defined before comparing proposals for abrasive-duty cleanup and hazard qualification?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/industrial-vacuuming-solutions-industry/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: What business result would justify investing in abrasive-duty cleanup and hazard qualification?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request foundry review at https://depurecousa.com/industrial-vacuuming-solutions-industry/.

ROI assumptions
Case study
Implementation scope
Support plan


Lane 19 Waterjet Cutting Abrasive Slurry Cleanup

Waterjet Cutting & Abrasive Slurry Cleanup

Question: What business result would justify investing in dense slurry and garnet recovery?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request slurry review at https://depurecousa.com/industrial-vacuum-solutions-for-waterjet-cutting-machines/.

ROI assumptions
Case study
Implementation scope
Support plan

Question: How should dense slurry and garnet recovery fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Slurry density; tank geometry; solids percentage; discharge; reuse. No direct first-party proof is mapped, so use a representative Depureco Labs test. Continue with request slurry review at https://depurecousa.com/industrial-vacuum-solutions-for-waterjet-cutting-machines/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What will maintenance need to service, clean and empty in this dense slurry and garnet recovery workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Slurry density; tank geometry; solids percentage; discharge; reuse. No direct first-party proof is mapped, so use a representative Depureco Labs test. Review maintainability through https://depurecousa.com/industrial-vacuum-solutions-for-waterjet-cutting-machines/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What must be defined before comparing proposals for dense slurry and garnet recovery?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. No direct first-party proof is mapped, so use a representative Depureco Labs test. Request the configured scope through https://depurecousa.com/industrial-vacuum-solutions-for-waterjet-cutting-machines/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation

Question: Will operators use the dense slurry and garnet recovery method consistently without slowing the line?

Answer: Verify setup time, tool ergonomics, training, daily checks, emptying and practical shift use. Confirm Slurry density; tank geometry; solids percentage; discharge; reuse. No direct first-party proof is mapped, so use a representative Depureco Labs test. Review the operator workflow through https://depurecousa.com/industrial-vacuum-solutions-for-waterjet-cutting-machines/.

Operator demo
Tool setup
Material test
Daily checklist


Lane 20 Central Vacuum Systems Multi Point Plants

Central Vacuum Systems / Multi-Point Plants

Engineered plant-wide housekeeping and process recovery

Question: What business result would justify investing in engineered plant-wide housekeeping and process recovery?

Answer: Quantify current labor, production interruption, material loss and the limits of the present method before comparing capital options. Confirm implementation scope and support. Review the linked first-party proof within its documented material and setup boundary. Continue with request system design at https://depurecousa.com/centralized-vacuum-systems/system-design-engineering/.

ROI assumptions
Case study
Implementation scope
Support plan

Question: How should engineered plant-wide housekeeping and process recovery fit production, uptime and daily housekeeping?

Answer: Verify production-window fit, repeatability, operator use and collection or disposal. Confirm Material; simultaneous users; pipe length; lift; duty; discharge; safety systems. Review the linked first-party proof within its documented material and setup boundary. Continue with request system design at https://depurecousa.com/centralized-vacuum-systems/system-design-engineering/.

Application video
Cycle-time example
Operator workflow
Discharge demonstration

Question: What technical inputs determine the correct configuration for dust, chips, powders, trim, bulk solids?

Answer: Validate material, state, loading, duty, distance, utilities, filtration, separation and discharge before selecting a model. Confirm Material; simultaneous users; pipe length; lift; duty; discharge; safety systems. Review the linked first-party proof within its documented material and setup boundary. Use https://depurecousa.com/centralized-vacuum-systems/system-design-engineering/ for technical review.

Datasheet
Material test
Configuration diagram
Exact model evidence

Question: What will maintenance need to service, clean and empty in this engineered plant-wide housekeeping and process recovery workflow?

Answer: Review filter cleaning, bridging, access, emptying, discharge, service and spare parts. Confirm Material; simultaneous users; pipe length; lift; duty; discharge; safety systems. Review the linked first-party proof within its documented material and setup boundary. Review maintainability through https://depurecousa.com/centralized-vacuum-systems/system-design-engineering/.

Maintenance photos
Filter-cleaning explanation
Parts support
Manual

Question: What must be defined before comparing proposals for engineered plant-wide housekeeping and process recovery?

Answer: Compare only normalized technical scopes. Define unit/system, hose/tools, filtration, separation, collection/discharge, utilities, lead time, warranty, consumables and support. Review the linked first-party proof within its documented material and setup boundary. Request the configured scope through https://depurecousa.com/centralized-vacuum-systems/system-design-engineering/.

Configured quote
Included-accessory list
Warranty
Lead-time confirmation


AC Series

Summary: High-vacuum pneumatic platform with standard and classified-area configurations.

compressed-air vacuuming where electric motors are not preferred or allowed

intrinsically safe/zone-rated applications where specified

air-powered vacuuming where electrical power is unavailable or undesirable

classified-area or ordinary-location dust control

combustible materials when properly configured

ANT M
GRD
M
HEPA 14
MANUAL
VENTURI EJECTOR
HEPA 13
LP

Explanation: Standard

Explanation: ATEX Zone Configuration

Explanation: ATEX Zone Configuration

Air-Powered / Pneumatic Industrial Vacuums

Combustible Dust / ORD LOC / Hazard-Rated Vacuums

Do not make a final product, filtration, hazardous-location, combustible-dust, chemical-compatibility, or engineered-system selection without the required application inputs and supporting evidence.


AF Series

Summary: Higher-airflow stationary dust-collector platform for source capture and production dust.

mobile/stationary dust collector applications

fine dust
process dust
powders
PVC dust
aluminum dust
composite dust
welding fumes
grinding dust
sanding dust
plastic fines
metal dust
wood dust
carbon/graphite dust
fumes

M
ANT M
HEPA 13
JET-CLEAN
PRV
PTFE
SP
SPARK TRAP

Explanation: Standard

Explanation: Standard

Explanation: Standard


AIR WELD Series

Summary: Portable welding-fume extractor platform.

and local source capture near fabrication work

welding fumes
smoke
metal fumes
airborne particulate
stainless steel fumes
mild steel fumes
MIG/MAG fumes
TIG fumes
grinding dust
metal smoke
odor/vapor-adjacent particulate

Explanation: Welding Fume Source Capture


AS Series

Summary: Scrap, trim and process-material collection platform for packaging, converting, food, pharmaceutical and OEM production equipment.

Bag-filter process collection
Larger-capacity trim extraction

OEM machine integration
process material recovery
production equipment extraction

process dust
powders
packaging debris
trim and production scrap

Explanation: Wave 5 product coverage expansion

Explanation: Wave 5 product coverage expansion

Explanation: Wave 5 product coverage expansion


ATLAS Series

Summary: Very-high-capacity industrial vacuum platform including side-channel and Roots pump variants.

wet and dry industrial cleanup
production debris recovery
and maintenance vacuuming
food powder cleanup
sanitary housekeeping
pharma room changeover
packaging trim extraction
OEM machine integration
continuous process extraction
large-volume material recovery
heavy-duty continuous vacuuming
multi-shift industrial cleanup

dust
chips
shavings
liquids
sludge
debris
flour
sugar
spices
allergens
crumbs
APIs
excipients
tablet dust

M
ANT M
JET-CLEAN
PRV
PTFE
REMOTE VACUUM CONTROL
SP
ROOTS PUMP

Use specifications only from this exact entity record. The shared human URL must not be used to merge specifications across models or variants.

Explanation: Standard

Explanation: Roots Pump

Explanation: Roots Pump


BF Series

Summary: Compact stationary and on-board vacuum platform for OEM machinery, food, pharmaceutical and packaging applications.

BF 150
BF 220
BF JC 150
BF JC 220
BF 220 JC

Standard star filter
JetClean cartridge configuration

Explanation: Wave 5 product coverage expansion

Explanation: Wave 5 product coverage expansion


BL Series

Summary: Combustible-dust and ORD LOC platform including JetClean and inerting configurations.

BL 20 JC ORD LOC
BL 45 INERT ORD LOC
BL 45 JC ORD LOC
BL 45 ORD LOC
BL PRO ORD LOC

ORD LOC
ORD LOC
Inertization
ORD LOC
JetClean

and compliance-minded cleanup in classified or ordinary-location areas

combustible dust
metal dust
food powders
plastic dust
carbon dust
fine industrial powders
flour dust
sugar dust
grain dust
wood dust
metal powder
graphite
carbon black
battery powder

Explanation: ORD LOC; JetClean

Explanation: ORD LOC; Inertization

Explanation: ORD LOC; JetClean

Explanation: ORD LOC

Explanation: ORD LOC


COMBO Series

Summary: Integrated vacuum and pre-separator platform for increased collection and reduced filter loading.

wet and dry industrial cleanup
production debris recovery
intermittent maintenance vacuuming
plant housekeeping
equipment cleanup
spill recovery
production-area cleanup
maintenance vacuuming
mixed wet/dry debris collection

dust
solids
chips
shavings
light liquids
shop debris
crumbs
powder spills
water
washdown liquids
sludge
oil mist residue
general production debris

Explanation: Standard


CVS Series

Summary: Engineered stationary central vacuum platform with side-channel and Roots pump variants.

CVS 110 P
CVS 125 P
CVS 125 S
CVS 150
CVS 185
CVS 200 P
CVS 200 S
CVS 250
CVS 300 ROOTS
CVS 370 ROOTS

Stationary / Central System
Stationary / Central System
Roots Pump

multi-point centralized vacuum cleaning
long-distance conveying
and process material recovery
multi-point housekeeping
central vacuum piping
production-line cleanup
long-distance material recovery
pre-separation
hopper/big-bag discharge
automated discharge
central vacuum systems
multi-point vacuum networks
fixed industrial suction systems

dust
chips
shavings
powders
bulk solids
process debris
combustible dust
food powders
wood dust
metal dust
swarf
packaging trim
graphite
bulk dust

REMOTE VACUUM CONTROL
CYCLONIC HOPPER
FREQUENCY CONVERTER
HEPA 14
PRE-SEPARATOR
PRV
SIDE-CHANNEL BLOWER

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System; Roots Pump

Explanation: Stationary / Central System; Roots Pump


DF Series

Summary: Dust-collector platform spanning mobile DF, SP, and stationary DF FIX configurations.

DF FIX 55 SP
DF FIX 75 SP
DF22
DF22 115V
DF22 SP
DF40
DF40 SP

fine dust
process dust
powders
fumes
particulate
airborne debris
welding fumes
grinding dust
sanding dust
plastic fines
metal dust
wood dust
carbon/graphite dust
PVC dust

HEPA 13
ANT M
M
PTFE
SPARK TRAP
JET-CLEAN
SP
MANUAL

Explanation: Reverse-Jet / SP

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP


DV AIR Series

Summary: Central filtering unit platform with standard and waste-bin collection branches.

DV AIR 1100
DV AIR 800
DV AIR WB 1100
DV AIR WB 800

Stationary / Central System
Stationary / Central System
Waste Bin

central vacuum systems
multi-point vacuum networks
fixed industrial suction systems
multi-point housekeeping
central vacuum piping
production-line cleanup
long-distance material recovery
pre-separation
hopper/big-bag discharge
automated discharge
multi-point centralized vacuum cleaning
long-distance conveying
and process material recovery

bulk dust
powders
process waste
dry solids
production debris
combustible dust
food powders
wood dust
metal dust
chips
swarf
packaging trim
graphite
bulk solids

REMOTE VACUUM CONTROL
ANT M
CYCLONIC HOPPER
FREQUENCY CONVERTER
JET-CLEAN
M
PRE-SEPARATOR
SP

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System; Waste Bin

Explanation: Stationary / Central System; Waste Bin


ECOBULL Series

Summary: Continuous-duty three-phase platform with standard and Class II Div. 2 configuration branches.

combustible dust
fine powders
metal dust
carbon dust
food dust
plastic dust
flour dust
sugar dust
grain dust
wood dust
metal powder
graphite
carbon black
battery powder

M
ANT M
GRD
HEPA 14
LP
MANUAL
SIDE-CHANNEL BLOWER

Explanation: Class II Div. 2

Explanation: Standard

Continuous-Duty Three-Phase Industrial Vacuums


HF Series

Summary: Stationary high-power vacuum unit platform for centralized systems.

HF 10
HF 15P
HF 15S
HF 18
HF 300
HF 30P
HF 30S
HF 35P

multi-point centralized vacuum cleaning
long-distance conveying
and process material recovery
multi-point housekeeping
central vacuum piping
production-line cleanup
long-distance material recovery
pre-separation
hopper/big-bag discharge
automated discharge

dust
chips
shavings
powders
bulk solids
process debris
combustible dust
food powders
wood dust
metal dust
swarf
packaging trim
graphite

M
REMOTE VACUUM CONTROL
CYCLONIC HOPPER
FREQUENCY CONVERTER
HEPA 14
PRE-SEPARATOR
SIDE-CHANNEL BLOWER
PRV
PSC

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System


M OIL Series

Summary: Portable oil and swarf recovery platform for CNC and machine-tool maintenance.

pump-back to coolant drums or machine tanks

coolant
oil
metal chips
swarf
sludge
tramp oil
fines
cutting fluid
hydraulic oil
turnings
metal mud

Explanation: Oil & Swarf / Sump


M PRO Series

Summary: Compact single-phase industrial vacuum platform for intermittent dust and solids cleanup.

Explanation: Standard


M100 Series

Summary: High-capacity single-phase platform spanning wet/dry, JetClean, Endless Bag, oil/swarf, and ORD LOC configurations.

M100 OIL
M100 ORD LOC
M100
M100 JC
M100 JC LP
M100 LP

Endless Bag / LP
JetClean
JetClean
Endless Bag / LP
ORD LOC
Oil & Swarf / Sump
Standard

coolant
oil
metal chips
swarf
sludge
tramp oil
fines
cutting fluid
hydraulic oil
turnings
metal mud
combustible dust
fine powders
metal dust

M
BYPASS MOTORS
PTFE
HEPA 14
GRD
LP
MANUAL
JET-CLEAN
HEPA 13
ANT M

Explanation: Oil & Swarf / Sump

Explanation: ORD LOC

Explanation: Standard

Explanation: JetClean

Explanation: JetClean; Endless Bag / LP

Explanation: Endless Bag / LP


MINIAIR Series

Summary: Compact pneumatic vacuum platform with standard and zone-configured branches.

ANT M
GRD
M
HEPA 14
MANUAL
VENTURI EJECTOR

Explanation: Standard

Explanation: ATEX Zone Configuration


MINIBULL Series

Summary: Portable high-capacity single-phase wet/dry platform with adaptable filtration and collection options.

wet and dry industrial cleanup
production debris recovery
and maintenance vacuuming
plant housekeeping
equipment cleanup
spill recovery
production-area cleanup
maintenance vacuuming
mixed wet/dry debris collection

dust
chips
shavings
liquids
sludge
debris
crumbs
powder spills
water
washdown liquids
oil mist residue
general production debris

Explanation: Standard


PUMA Series

Summary: High-power platform spanning mobile, SP, heavy-duty, and PUMA FIX stationary configurations.

PUMA FIX 10
PUMA FIX 15P
PUMA FIX 18P
PUMA FIX 20
PUMA FIX 23
PUMA FIX 25
PUMA 10
PUMA 10 SP
PUMA 15P
PUMA 15P SP
PUMA 18P
PUMA 18P SP
PUMA 20
PUMA 20 SP
PUMA 23
PUMA 23 SP
PUMA 25
PUMA 25 SP
PUMA 30 P SP
PUMA 30 S SP
PUMA 35 P SP
PUMA FIX 15S
PUMA FIX 18S
PUMA 35S
PUMA 30P
PUMA 30S
PUMA 35P

Reverse-Jet / SP
Standard
Stationary / Central System

multi-point centralized vacuum cleaning
long-distance conveying
and process material recovery
multi-point housekeeping
central vacuum piping
production-line cleanup
long-distance material recovery
pre-separation
hopper/big-bag discharge
automated discharge
central vacuum systems
multi-point vacuum networks
fixed industrial suction systems
wet and dry industrial cleanup

HEPA 14
M
CYCLONIC HOPPER
PRE-SEPARATOR
PRV
SIDE-CHANNEL BLOWER
GRD
PSC
ANT M
JET-CLEAN
SP
REMOTE VACUUM CONTROL

PUMA HD is a subseries; standard PUMA 30P/30S/35P/35S and SP variants are separate exact records.

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Stationary / Central System

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Reverse-Jet / SP

Explanation: Reverse-Jet / SP

Explanation: Reverse-Jet / SP


RAM OIL Series

Summary: High-capacity sump, coolant, oil, sludge, chip, and swarf recovery platform.

RAM OIL 1000 AV
RAM OIL 1000 MP
RAM OIL 200 MP
RAM OIL 250 TS
RAM OIL 280 MP
RAM OIL 500 MP
RAM OIL T555

coolant
oil
metal chips
swarf
sludge
tramp oil
fines
cutting fluid
hydraulic oil
turnings
metal mud
chips
metal fines

PUMP
M
SIEVE GRID BASKET
BYPASS MOTORS
PRV
SIDE-CHANNEL BLOWER
TILTING HOPPER

Explanation: Oil & Swarf / Sump

Explanation: Oil & Swarf / Sump

Explanation: Oil & Swarf / Sump

Explanation: Oil & Swarf / Sump

Explanation: Oil & Swarf / Sump

Explanation: Oil & Swarf / Sump

Explanation: Oil & Swarf / Sump


SWAN Series

Summary: Food, pharmaceutical and process vacuum platform for dry powders, production debris and sanitary material-handling workflows.

Explanation: Wave 5 product coverage expansion


TB Series

Summary: Compact continuous-duty three-phase industrial vacuum platform.

wet and dry industrial cleanup
production debris recovery
and maintenance vacuuming
continuous-duty cleanup
production-line debris recovery
equipment cleanup
central pre-feed
heavy housekeeping
long-hose vacuuming

dust
chips
shavings
liquids
sludge
debris
metal chips
powders
sand
grit
pellets
trim scrap
process debris
dry bulk material

Explanation: Standard


TB UP Series

Summary: Higher-performance compact three-phase platform with airflow or high-vacuum variants.

continuous-duty dust and solids recovery

M
GRD
HEPA 14
LP
MANUAL
PRE-SEPARATOR
PRV
PSC
PTFE
SIDE-CHANNEL BLOWER
SP
TAN

Explanation: Standard

Explanation: Standard


TX Series

Summary: Modular continuous-duty three-phase platform with standard, SP reverse-jet, ORD LOC, and C2D2 branches.

TX 400 P ORD LOC
TX 400P C2D2
TX 750 C2D2
TX 750 ORD LOC
TX 300
TX 300 SP
TX 400 P
TX 400 P SP
TX 400 S
TX 400 S SP
TX 550 P
TX 550 P SP
TX 550 S
TX 550 S SP
TX 750
TX 750 SP

Class II Div. 2
ORD LOC
Reverse-Jet / SP
Standard

M
SP
GRD
HEPA 14
LP
PRV
SIDE-CHANNEL BLOWER
PRE-SEPARATOR
PSC
PTFE
TAN
ANT M

Explanation: ORD LOC

Explanation: Class II Div. 2

Explanation: Class II Div. 2

Explanation: ORD LOC

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP

Explanation: Standard

Explanation: Reverse-Jet / SP


UPF Series

Summary: Ultra-compact stationary and machine-integrated vacuum platform for food, pharmaceutical, packaging and OEM process equipment.

Explanation: Wave 5 product coverage expansion

Explanation: Wave 5 product coverage expansion

Explanation: Wave 5 product coverage expansion

Explanation: Wave 5 product coverage expansion


WD AIR Series

Summary: Pneumatic liquid-recovery platform.

compressed-air vacuuming where electric motors are not preferred or allowed

intrinsically safe/zone-rated applications where specified

combustible materials when properly configured

Explanation: Standard


WD Series

Summary: Dedicated high-volume liquid recovery platform with pump discharge.

Explanation: Standard


XFLOOR Series

Summary: Mobile fine-dust extractor platform designed around contained bag collection and HEPA-oriented cleanup.

Explanation: Standard