150 mm or 200 mm: choosing a wafer size for a pilot line
Substrates, tool availability, automation and facilities all change between 150 and 200 mm. How to pick a wafer size for a pilot line built on used tools.
100 mm (4 in), 125 mm (5 in), 150 mm (6 in), 200 mm (8 in) · Late 1980s–2000s
The Precision 5000 is a single-wafer cluster platform that takes etch and CVD chambers on one mainframe. We source, configure, refurbish and service used P5000 systems.
Price on request
The Applied Materials Precision 5000, introduced in the late 1980s, was one of the first widely adopted single-wafer, multi-chamber cluster platforms. A central robot moves wafers from a load lock to up to four process chambers, and those chambers can be etch, CVD or a mix. Because so many were built, a used P5000 remains one of the most practical ways for a 150 or 200 mm pilot line to add dielectric deposition or oxide, nitride and silicon etch with production-proven hardware.
It is not a lab bench tool. Each chamber has its own RF, gas and pump needs, and the mainframe takes floor space and service access. Labs that only need one etch process on pieces will be better served by an Oxford Plasmalab System 100 or similar.
The first conversation about a P5000 is about chambers, not condition. Common configurations combine magnetically enhanced RIE etch chambers (the MxP family) for oxide, nitride or poly with CVD chambers for oxide and nitride films. We work from your process list to decide:
Chamber type follows the process. Oxide and nitride etch run in magnetically enhanced RIE chambers with fluorocarbon chemistry. Polysilicon and aluminium etch need chambers, gas panels and pumps built for chlorine or bromine chemistry, with corrosion-resistant parts. PECVD chambers deposit TEOS-based or silane-based oxide and silane-ammonia nitride, typically at around 400 °C, and TEOS needs a liquid delivery system as well as gas lines. Thermal CVD chambers were also built for the platform, depending on configuration.
Our post on 150 mm versus 200 mm tools for pilot lines helps with the wafer size decision.
We refurbish per chamber: chamber refurbishment of parts and seals, RF checks, pump service and mass flow controller calibration, followed by robot calibration across all positions. Certified systems run a test process on each chamber, with rate and uniformity data in the report. For installed systems we offer maintenance visits and spare parts sourcing.
Write down the exact process list before comparing systems. A cheaper P5000 with the wrong chambers costs more in the end than one already fitted for your films. Ask for the chamber types, wafer size and software revision in writing, and visit if the tool is running. See the etch category for single-chamber alternatives.
Typical values for the platform. Each tool’s inspection report lists its actual configuration.
Rebuild used tools to their original specification, with a written scope and a test report.
Learn moreRetrofit older tools with new controls, light sources, pumps, wafer sizes or endpoint detection.
Learn moreKeep older process tools running with planned maintenance, repair, calibration and parts.
Learn moreMoving a process tool from one cleanroom to another, and getting it running at the new site.
Learn moreNeed a spare part for the Precision 5000? Send us the part number and we will check what we can supply.
Yes, mixed configurations exist, but each chamber needs its own gases, RF and pumping. We check that the facilities and safety systems at your site cover every chamber fitted.
Etch and CVD chamber types were built for the platform over many years. We match chambers to your films and wafer size and confirm compatibility with the mainframe revision.
It needs more space, power and facilities than a single-chamber research tool. For a pilot line with steady volume on 150 or 200 mm, it is often a cost-effective way to get production-proven processes.
The P5000 was built in large numbers, so used and third-party parts are widely available. We are independent of Applied Materials and state the origin of each part.
200 mm (8 in) · Late 1990s–2010s
150 mm (6 in) · Mid-1990s–2000s
Substrates, tool availability, automation and facilities all change between 150 and 200 mm. How to pick a wafer size for a pilot line built on used tools.
Old controllers, discontinued boards and lost manuals retire most legacy tools. How to plan spares, backups and retrofits before a failure forces it.
Why a second-hand etcher or furnace can need an export licence, which rules usually apply in the EU, and what buyers and sellers should prepare before shipping.
Tell us the process, wafer size and facilities. We reply with availability, an inspection report and a refurbishment scope.