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17 February 2014

Oxford Instruments receives cluster system order from Glasgow University to improve energy efficiency of electronic and optoelectronic devices

UK-based etch and deposition system maker Oxford Instruments says that it has recently received a multi-million pound order for a complex deposition and analysis cluster system from the James Watt Nanofabrication Centre at the University of Glasgow in Scotland (which houses over £22m of nanofabrication tools in a 750m2 cleanroom run as a pseudo-industrial operation by 14 technicians and 4 PhD-level research technologists). The system will enable development to improve the energy-efficiency performance of electronic and optoelectronic devices for a large range of applications. Through its Plasma Technology and Omicron Nanoscience businesses, Oxford Instruments’ Nanotechnology Tools business sector was able to provide the broad range of technologies necessary for this ‘Powerhouse’ multi-chamber and multi-function system.

The Oxford Instruments four-chamber cluster system combines: Plasma Technology’s FlexAL atomic-layer deposition (ALD) tool for depositing very thin films of metals, oxides and nitrides using both thermal and inductively coupled plasma (ICP) ALD processes, a PlasmaPro System100 ICP for etching compound semiconductor materials, and a PlasmaPro System100 ICP for high-density plasma-enhanced chemical vapour deposition (PECVD) system providing low-damage, low-temperature thin films; plus the Omicron Nanoscience NanoSAM LAB for surface-sensitive chemical analysis and high-resolution imaging of small (micro and nano)-structures by scanning Auger microscopy (SAM) and scanning electron microscopy (SEM).

These systems will be combined in a unique configuration, and under vacuum, allowing device manufacturing and characterization measurements to be performed on device interfaces and surfaces without exposure to atmosphere.

The cluster system will be used in projects that aim to develop applications and improve the efficiencies of electronic and optoelectronic devices, and aid in the reduction of ICT energy consumption and carbon emissions. Projects include ‘Silicon compatible GaN power electronics’ developing energy-efficient power electronics, and ‘Scalable solar thermoelectrics and photovoltaics’ where the objective is to dramatically reduce the cost of large-scale exploitation of solar energy and hence massively decrease the carbon dioxide emissions associated with electrical and thermal power generation.

“We chose Oxford Instruments’ systems for a number of reasons: our long and successful collaboration history, Oxford Instruments was the manufacturer who could integrate an analysis chamber with sub-10nm resolution for chemical analysis (essential for many nanodevices), and also because of the very strong third-party recommendations we received about the capability of their ALD system,” comments professor Douglas Paul, director of the James Watt Nanofabrication Centre @ Glasgow. “We are looking forward to the extensive research opportunities this system will enable,” he adds.

“Our group of businesses offers the research community the opportunity to integrate a range of our high-technology fabrication and analysis tools, rather than having to approach multiple suppliers,” says Mark Sefton, sector head for Oxford Instruments Nanotechnology Tools. “Longer-term benefits are that our dedicated process, service and support team will be able to offer Glasgow University the cohesive process applications and system support on the entire system that they will require.”

Tags: OIPT

Visit: www.oxford-instruments.com

Visit: www.jwnc.gla.ac.uk

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