PHI. Scanning XPS Microprobe

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PHI Scanning XPS Microprobe

Unique Scanning XPS Microprobe X-ray photoelectron spectroscopy (XPS/ESA) is the most widely used surface analysis technique and has many well established industrial and research applications. XPS provides quantitative elemental and chemical state information from surfaces and thin film structures. XPS is applied to a diverse range of materials systems including: polymers, metals, thin films, nanomaterials, semiconductors, magnetic storage media, display technology, biomedical devices, and catalysts. Paints & Polymers Storage Media Micro-Electronics Thin Film oatings Monochromatic Scanning X-ray Source Secondary Electron and XPS Imaging High Sensitivity Large and Micro-Area Spectroscopy Superior Inorganic and rganic Depth Profiling Unequalled Productivity

DESIGNED T SLVE YUR MATERIALS PRBLEMS The Quantera II is built upon the revolutionary technologies Physical Electronics (PHI) introduced with the Quantum 2 including: a patented micro-focused scanning x-ray source, patented dual beam charge neutralization technology, a floating column ion gun for XPS sputter depth profiling, flexible robotic sample handling, and a fully automated internet ready instrument platform. The Quantera II increases the performance and productivity of these revolutionary technologies, providing the highest performance XPS system available to meet your current and future XPS needs. Medical Devices

Worry-Free XPS USER FRIENDLY Whether you are analyzing a thin polymer sheet, a large plastic lens, a steel razor blade, or electrically isolated solder bumps; the instrument set-up is the same. Point and click at an optical image to select the analysis areas. Then start the analysis with the dual beam neutralizer and the auto-z functions activated to provide automatic sample alignment and charge neutralization. There is no individual sample tuning, no concerns over sample composition and size, and no worries about walking away from the instrument and letting it automatically collect data from all your samples. Robust Automatic Sample Alignment ( Auto-Z ) Hands-ff harge Neutralization No Special Sample Mounting or Masking Fully Automated Unattended Analysis Solder Bump l e Steel Razor Blade Blue Polymer Pieces Sn d d e i n Bad d e i n Sn Sn Pb Sn Pb Na N Si Fe Fe Mn Na a l Si Fe N S 1 8 6 4 2 1 8 6 4 2 1 8 6 4 2 1 8 6 4 2

Thin Film Analysis PTIMIZED NFIGURATIN A focused x-ray beam, high sensitivity spectrometer, high performance floating column ion gun, turnkey dual beam charge neutralization, compucentric Zalar rotation, and advanced data reduction algorithms provide the highest performance XPS depth profiling capability available. Applications include: semiconductor thin film structures, magnetic media thin films, optical coatings, decorative coatings, wear coatings, and with the optional 6 sputter ion gun polymer and organic thin films such as time release drug coatings and organic LED films. Atomic oncentration (%) 7 6 5 4 3 2 1 Tin oxide xygen arbon Bromine Tin metal Lead 5 1 15 2 Sputter Depth (nm) 2keV sputter depth profile of the surface species on a solder ball used for semiconductor packaging INRGANI THIN FILM ANALYSIS -5 kv floating column ion gun Low voltage depth profiling for ultra thin films Bend in column to stop neutrals ompucentric Zalar rotation Effective dual beam charge neutralization Micro-area depth profiling Multi-point depth profiling Atomic oncentration (%) 1 8 6 4 2 Expected omposition for Rapamycin 1s 1s RGANI THIN FILM ANALYSIS ptional 1 kv and 2 kv 6 sputter ion guns Mass filtered 6 ion beam Bend in column to stop neutrals Sputters many polymer and organic materials without damaging their chemistry Si 2p N 1s X 1 1 2 3 4 5 ~ Sputter Depth (nm) 1 kev 6 depth profile of a 5/5 rapamycin and PLGA film showing segregation of the rapamycin to the surface of the coating.

UNIQUE TEHNLGY Scanning XPS Microprobe PHI s patented scanning x-ray source provides a scanning microprobe environment for performing micro-area XPS analysis. An electronically raster scanned micro-focused electron beam strikes an aluminum anode creating a point source of aluminum x-rays. The ellipsoidal shaped monochromator delivers a scannable focused beam of monochromatic aluminum x-rays to the sample surface. When the electron beam is scanned on the aluminum anode, the x-ray beam is scanned on the sample surface. The diameter of the x-ray beam can be adjusted from less than 7.5 μm to 3 μm in diameter. Raster Scanned Electron Beam Al Anode Quartz rystal Monochromator Raster Scanned X-ray Beam Analyzer Input Lens PATENTED TEHNLGY US Patent 5,315,113 US Patent 5,444,242 JP Patent 3752252B2 JP Patent 3754696B2 EP Patent 5938B1 EP Patent 669635B1 EP Patent 12228B1 6 μm 1 μm 14 μm SPATIAL RESLUTIN X-ray beam induced secondary electron image of an MRS-3 magnification standard shows the ability to resolve features as small as 6 μm in diameter.

Micro-Area Spectroscopy UNEQUALLED PERFRMANE The Quantera II Scanning X-ray Microprobe provides the ability to routinely obtain XPS spectra from small patterned features and localized contaminants. Its unique scanning x-ray source provides real time secondary electron images to locate features for analysis and the sensitivity needed to quickly obtain micro-area spectra from them. In the example shown below, multiple contaminants were quickly located and identified by the Quantera II with no prior knowledge of their location and composition. SANNING XPS MIRPRBE SE IMAGING 1 8 6 4 2 1 µm Secondary Electron Image MULTI-AREA SPETRSPY Survey Spectra Si 1 2 2 2 28 28 arbon 1s 2 No contaminants were visible with an optical microscope on the surface of this transparent polymer film. A secondary electron image immediately revealed the presence of unexpected localized contaminants on the polymers surface. Micro-area spectra obtained with a 2 μm diameter x-ray beam identified a fluorocarbon contaminant in a few minutes. HEMIAL IMAGING F Map Map n 1 µm Mapping area n N n Si 1 8 6 4 2 Elemental maps show the smaller features in the secondary electron image do not contain fluorine. A micro-area spectrum from the smaller features, obtained using a 1 μm diameter x-ray beam, identifies the presence of a second contaminant that contains Zn.

Quantera II s Features and Accessories FEATURES X-ray microprobe with 7.5 μm spatial resolution High sensitivity electrostatic detection optics Dual beam charge neutralization Robotic sample handling Samples up to 1 mm diameter and 25 mm thick Two internal sample parking stations High performance floating column ion gun High speed snapshot depth profiling mode Quantitative chemical state mapping Automated angle dependent profiles PHI MultiPak data reduction software PTINAL AESSRIES Sample Positioning Station Hot/old sample stage old sample introduction apparatus Sample transfer chamber to external test stations 6 sputter cleaning and depth profiling apparatus PHI MULTIPAK PHI MultiPak is the most comprehensive data reduction and interpretation software package available for electron spectroscopy. The tasks of spectral peak identification, extracting chemical state information, quantification, and detection limit enhancement are addressed with an array of powerful and easy-to-use software tools. MultiPak can be used on the instrument P to process data in real time or on an off-line P for report generation. Important features of MultiPak include: Intuitive point-and-click user interface omplete set of standard data reduction tools provides accurate quantitative and chemical state information Powerful advanced numerical analysis tools Batch processing of large data sets opy and paste report generation support Easy export of numerical results Physical Electronics Address: 18725 Lake Drive East, hanhassen, MN 55317 Phone: 952-828-62 Fax: 952-828-6176 Email: sales@phi.com Web: www.phi.com ULVA-PHI, Inc. Address: 37 Enzo, higasaki, Kanagawa, 253-8522, Japan Phone: 81-467-85-422 Fax: 81-467-85-4411 Email: webmasterjp@phi.com Web: www.ulvac-phi.co.jp