O₂ or Ar — Each Does a Different Job
Oxygen removes organic residue by chemical oxidation. Argon removes native oxide by physical ion bombardment. They are not interchangeable.
We stock used plasma cleaners from March, Diener, Plasma Etch, PVA TePla and other platforms — batch vacuum, automatic strip and wafer-level systems for surface activation, descum and oxide removal. The machine that fits your line depends on four things: the product format, the gas chemistry, the chamber geometry and the required treatment uniformity. Most used-plasma-cleaner purchases that go wrong fail at one of these four points — the model matches, the machine arrives, and then the chamber can't handle the actual part loading, or the gas chemistry doesn't match the surface mechanism you need. Tell us your requirements and we'll shortlist the systems that actually work on your line.
Oxygen removes organic residue by chemical oxidation. Argon removes native oxide by physical ion bombardment. They are not interchangeable.
Reactive species concentration shifts with the total surface area loaded. A recipe developed on a single coupon doesn't scale linearly to a full batch.
The same RF output across a small chamber produces a very different surface interaction than the same output spread across a larger one.
We've seen buyers order a plasma cleaner expecting it to solve a particle problem, then discover the machine removes organic residue but can't touch the particles — those still need a wet clean step. Most customers begin searching for a plasma cleaner after a bonding, wetting or adhesion problem appears. The fastest way to narrow the equipment is to identify the product, the suspected surface condition and the next process.
Tell us whether the parts are wafers, strips, leadframes, substrates or packaged devices, and whether treatment is required before die attach, wire bonding, underfill, molding or coating.
Review plasma cleaning before die attach or wire bonding when pad, leadframe or substrate contamination may affect adhesion and process consistency. Oxygen plasma is the usual route for organic removal; argon is for oxide reduction on metal bond pads.
Surface activation may help underfill, adhesive or coating spread more consistently when poor wetting is linked to surface energy or organic residue. The loading effect matters here — a recipe that works on one part may need adjustment for a full batch.
Evaluate plasma treatment before molding or encapsulation when adhesion between the package surface and protective material requires better preparation. Confirm that the plasma source won't damage exposed wire bonds or sensitive structures.
For wafer and panel processes, confirm device sensitivity, carrier method, uniformity and whether the required treatment is compatible with the actual plasma platform. Edge and center treatment need to match — shadowing is a common problem with high-aspect-ratio features.
Two plasma cleaners with the same model name can have very different capabilities. The installed chamber size, RF generator, electrode layout, gas manifold and handling system matter more than the platform name alone. Review the current inventory, then send us your process requirements for a configuration check.
Nordson MARCH AP-600 plasma cleaning system. Benchtop batch unit. Dry treatment for semiconductor substrates, packages, ...
PVA TePla IoN 200 RF plasma system. Handles 200mm wafers and large substrates. Dry cleaning removes organics and oxides,...
Nordson MARCH AP-300 plasma cleaning system. Benchtop batch unit, 13.56 MHz RF with auto impedance matching, up to 7 adj...
Panasonic PSX307 cleans substrates and wafers with parallel plate plasma. Ar, O₂, or mixed gas. Lift unit handles thin w...
The machine route should match the product carrier, production volume and required surface treatment. Equipment with similar plasma specifications may still be unsuitable if the chamber or handling system cannot support the actual product flow.
Batch vacuum systems support mixed products, process development and low-to-medium volume production using trays, racks, carriers, leadframes, packages or wafers.
Confirm: chamber volume, electrode layout, loading fixtures, plasma source, gas channels, pump and recipe control.
Automated strip and magazine systems are designed for repeatable semiconductor backend production where handling, recipe control and traceability are part of the line.
Confirm: strip dimensions, magazine type, transfer direction, cycle target, communication protocol and loader/unloader configuration.
Inline systems can treat substrates or electronic assemblies before coating, bonding or dispense processes without breaking the production flow.
Confirm: panel dimensions, conveyor height, treatment uniformity, line speed, product clearance and upstream/downstream interface.
Wafer-level systems require tighter control of wafer size, carrier method, edge protection, backside exposure, treatment uniformity and device sensitivity.
Confirm: wafer or panel size, carrier, load port or cassette, process uniformity, plasma mode and allowed ion or UV exposure.
The chamber and automation must fit the actual product. Plasma capability alone does not guarantee that a machine can handle the required strip, wafer, substrate or carrier.
IC, discrete, power and sensor packages.
Strip width, magazine type, pitch, electrode spacing, product clearance, transfer direction and cycle time.
WLP, advanced packaging and wafer surface preparation.
Wafer or panel size, carrier, edge protection, uniformity, backside exposure and device sensitivity.
Preparation before dispense, bonding or coating.
Panel dimensions, treatment area, conveyor interface, fixtures, line speed and downstream material process.
R&D, qualification and flexible production.
Rack design, sample holder, recipe flexibility, cross-contamination control, gas options and maintenance access.
You do not need a finished plasma recipe before asking for a machine. A useful review starts with the product, the next process and the result you need from surface treatment.
Share the information already available. We can then identify which chamber, gas route, plasma source, handling system and automation details still need confirmation.
Wafer, strip, leadframe, substrate, panel, carrier, magazine or packaged device, including dimensions and loading direction.
Selected residue removal, oxide reduction, surface activation, improved wetting or preparation before bonding, underfill, molding or coating.
Identify exposed metals, polymers, optical surfaces, MEMS structures or other materials that may limit ion, heat or UV exposure.
Batch quantity, cycle target, recipe storage, barcode, logging, SECS/GEM and inline communication requirements.
Available process gases, electrical supply, compressed air, cooling, vacuum exhaust, floor space and local safety requirements.
We've seen buyers purchase a used plasma cleaner based on a model number, then discover the chamber electrodes are worn or the RF generator is out of spec — issues that cost more than the initial savings. The same plasma cleaner model may have different chambers, RF generators, electrodes, gas manifolds, pumps, software and automation modules. A quotation should identify the machine that will actually be supplied.
Confirm the exact platform, manufacturing year, serial information and current location.
Identify chamber size, electrode layout, RF frequency and power configuration.
Confirm gas channels, flow controls, pump model, purge arrangement and exhaust route.
Review handling modules, recipe software, licenses, barcode, logging and factory interfaces.
Check electrode wear, chamber deposits, pump service history, seals, valves and refurbishment scope.
List included racks, boats, carriers, manuals, spares, transformers and installation requirements.
These questions help separate the equipment category, process route and actual configuration before a quotation is prepared.
It may help when selected organic contamination, oxide condition or low surface energy is affecting the process. Oxygen plasma is the usual route for organic removal; argon is for oxide reduction on metal surfaces. The product material, contamination source and bonding method should be reviewed before selecting the equipment or recipe.
Batch systems load products into a chamber using trays, racks or carriers and are often selected for flexibility. Automatic systems add strip, magazine, wafer or conveyor handling for repeatable production and factory integration.
Oxygen oxidizes organic contamination into volatile byproducts that get pumped away — this is the route for removing organic films ahead of coating or printing. Argon works by physical ion bombardment rather than chemistry, reducing native oxide thickness on metals — this is the route for deoxidizing bond pads or metal interfaces before bonding. Treating them as interchangeable gas choices is where most plasma cleaning specs go wrong.
No. Plasma is effective for many organic residues and surface-activation tasks, but particles, ionic contamination and heavy deposits may still require a wet-cleaning or mechanical-cleaning process.
Check the model, chamber, RF generator, electrodes, gas controls, vacuum pump, loader, software, process history, chamber cleanliness, maintenance records, included fixtures and factory utility requirements.
Send the target product, dimensions, contamination or surface objective, next process, preferred automation, required gas route, production volume, equipment condition and destination country. A model number is helpful but not mandatory.
Send the product format, surface objective, next process and gas chemistry requirement. We'll confirm availability, chamber compatibility and configuration completeness within 4 business hours.