The Most Accurate Atomic Force Microscope. Park XE15 Power and versatility, brilliantly combined.

Similar documents
Park XE7 The most affordable research grade AFM with flexible sample handling.

The Most Accurate Atomic Force Microscope. Park NX20 The leading nano metrology tool for failure analysis and large sample research.

Park NX-Hivac The world s most accurate and easy to use high vacuum AFM for failure analysis.

Park NX20 The leading nano metrology tool for failure analysis and large sample research.

Park NX10. The most accurate and easiest to use Atomic Force Microscope.

The World s Most Accurate AFM System. Park NX-3DM Innovation and Efficiency for 3D Metrology.

Advanced Nanoscale Metrology with AFM

INDIAN INSTITUTE OF TECHNOLOGY BOMBAY

Cutting-edge Atomic Force Microscopy techniques for large and multiple samples

Nanotechnology Solutions Partner

SPM The Industry s Performance Leader High Resolution Closed-loop System Fast, Easy Tip & Sample Exchange Versatility and Value Powerful Research

Keysight Technologies 5500 AFM Controller Upgrade. Data Sheet

Optical Microscope. Active anti-vibration table. Mechanical Head. Computer and Software. Acoustic/Electrical Shield Enclosure

Keysight 9500 AFM. Data Sheet

- Near Field Scanning Optical Microscopy - Electrostatic Force Microscopy - Magnetic Force Microscopy

Measurement of Microscopic Three-dimensional Profiles with High Accuracy and Simple Operation

Indian Institute of Technology Bombay

NanoFocus Inc. Next Generation Scanning Probe Technology. Tel : Fax:

Nanosurf easyscan 2 FlexAFM

PicoMaster 100. Unprecedented finesse in creating 3D micro structures. UV direct laser writer for maskless lithography

Atomic Force Microscopy (Bruker MultiMode Nanoscope IIIA)

Keysight Technologies Why Magnification is Irrelevant in Modern Scanning Electron Microscopes. Application Note

UNIVERSITY OF WATERLOO Physics 360/460 Experiment #2 ATOMIC FORCE MICROSCOPY

PICO MASTER 200. UV direct laser writer for maskless lithography

Microscopic Structures

Keysight Technologies Scanning Microwave Microscope Mode. Application Note

nanovea.com PROFILOMETERS 3D Non Contact Metrology

MEMS for RF, Micro Optics and Scanning Probe Nanotechnology Applications

PFM Experiments with High Voltage DC/AC Bias

Standard Operating Procedure of Atomic Force Microscope (Anasys afm+)

MEASUREMENT APPLICATION GUIDE OUTER/INNER

Outline: Introduction: What is SPM, history STM AFM Image treatment Advanced SPM techniques Applications in semiconductor research and industry

Bruker Dimension Icon AFM Quick User s Guide

Manufacturing Metrology Team

Lecture 20: Optical Tools for MEMS Imaging

ATOMIC FORCE MICROSCOPY

Bruker Dimension Icon AFM Quick User s Guide

Super High Vertical Resolution Non-Contact 3D Surface Profiler BW-S500/BW-D500 Series

LOW TEMPERATURE STM/AFM

Ionscope SICM. About Ionscope. Scanning Ion Conductance Microscopy. Ionscope A brand of Openiolabs Limited

Asylum Research. MFP-3D Infinity. Endless Applications. Unlimited Potential. Performance / Versatility / Support

Measurement of Surface Profile and Layer Cross-section with Wide Field of View and High Precision

Nanonics Systems are the Only SPMs that Allow for On-line Integration with Standard MicroRaman Geometries

Scanning Microwave. Expanding Impedance Measurements to the Nanoscale: Coupling the Power of Scanning Probe Microscopy with the PNA

Thermo Scientific SPECTRONIC 200 Education

Advanced 3D Optical Profiler using Grasshopper3 USB3 Vision camera

Nanosurf Nanite. Automated AFM for Industry & Research.

Keysight Technologies Using Non-Contact AFM to Image Liquid Topographies. Application Note

Basic methods in imaging of micro and nano structures with atomic force microscopy (AFM)

Bringing Answers to the Surface

MPI TS300-SE 300 mm Manual Probe System with ShielDEnvironment TM For accurate and reliable DC/CV, RF and mmw measurements

Prepare Sample 3.1. Place Sample in Stage. Replace Probe (optional) Align Laser 3.2. Probe Approach 3.3. Optimize Feedback 3.4. Scan Sample 3.

Investigate in magnetic micro and nano structures by Magnetic Force Microscopy (MFM)

Thermo Scientific SPECTRONIC 200 Visible Spectrophotometer. The perfect. teaching instrument

SENSOR+TEST Conference SENSOR 2009 Proceedings II

Optical Characterization and Defect Inspection for 3D Stacked IC Technology

Automated Frequency Response Measurement with AFG31000, MDO3000 and TekBench Instrument Control Software APPLICATION NOTE

Fiber Optic Device Manufacturing

Improving the Collection Efficiency of Raman Scattering

Measuring CNT FETs and CNT SETs Using the Agilent B1500A

LITE /LAB /SCAN /INLINE:

attocube systems Probe Stations for Extreme Environments CRYOGENIC PROBE STATION fundamentals principles of cryogenic probe stations

Atomic Force Microscopes

Nanovie. Scanning Tunnelling Microscope

Simplifying DC-DC Converter Characterization using a 2600B System SourceMeter SMU Instrument and MSO/DPO5000 or DPO7000 Series Scope APPLICATION NOTE

OPTICS IN MOTION. Introduction: Competing Technologies: 1 of 6 3/18/2012 6:27 PM.

X-ray Inspection Systems 2D AXI / 3D AXI / WAXI

Standard Operating Procedure

University of MN, Minnesota Nano Center Standard Operating Procedure

Comparison of resolution specifications for micro- and nanometer measurement techniques

Suivie de résonance: méthodes à fréquences multiples. Romain Stomp Application Scientist, Zurich Instruments AG. ZI Applications

Park NX-Hivac: Phase-lock Loop for Frequency Modulation Non-Contact AFM

_active vibration isolation desktop unit halcyonics_i4 series

PICO MASTER. UV direct laser writer for maskless lithography

Introduction of New Products

Thermo Scientific SPECTRONIC 200 Visible Spectrophotometer. The perfect tool. for routine measurements

Options and Accessories for Asylum Research MFP-3D AFMs

Coherent Laser Measurement and Control Beam Diagnostics

ACCURATE PRINTING MACHINES.

Performing Safe Operating Area Analysis on MOSFETs and Other Switching Devices with an Oscilloscope APPLICATION NOTE

Fastest high definition Raman imaging. Fastest Laser Raman Microscope RAMAN

Using Optics to Optimize Your Machine Vision Application

Nanoscale Material Characterization with Differential Interferometric Atomic Force Microscopy

attosnom I: Topography and Force Images NANOSCOPY APPLICATION NOTE M06 RELATED PRODUCTS G

Scanning Ion Conductance Microscope ICnano

Add CLUE to your SEM. High-efficiency CL signal-collection. Designed for your SEM and application. Maintains original SEM functionality

Scanning Tunneling Microscopy

Fast Laser Raman Microscope RAMAN

Thermo Scientific SPECTRONIC 200

S540 Power Semiconductor Test System Datasheet

Surface Finish Measurement Methods and Instrumentation

Using Nanoelectrical Solutions to expand the capability of AFM Dr. Peter De Wolf

Corporate Introduction of CRESTEC CORPORATION Expert in E-Beam Nanofabrication

Confocal NEXIV VMZ-K Series. CNC Video Measuring System CONFOCAL NEXIV. VMZ-K Series

Keysight Technologies E1834E/G/J/M/Z Mounted Beam Delivery Optics. Preliminary Data Sheet

FemtoFAB. Femtosecond laser micromachining system. tel fax Konstitucijos ave. 23C LT Vilnius, Lithuania

Confocal NEXIV VMZ-K Series. CNC Video Measuring System CONFOCAL NEXIV. VMZ-K Series

Laboratory Battery Testing Systems for Cell Applications

Electric polarization properties of single bacteria measured with electrostatic force microscopy

Nikon. King s College London. Imaging Centre. N-SIM guide NIKON IMAGING KING S COLLEGE LONDON

Transcription:

The Most Accurate Atomic Force Microscope Park XE15 Power and versatility, brilliantly combined. www.parkafm.com

Park XE15 Increase your productivity with our powerfully versatile atomic force microscope The Park XE15 includes many unique capabilities that make it ideal for shared labs that handle a diverse range of samples, researchers doing multi variant experiments, and failure analysis engineers working on wafers. Its reasonable price and robust feature set also make it one of the best value large-sample AFMs in the industry. Unique MultiSample scan boosts research productivity Maximize your efficiency with the only AFM that offers the ability to image and measure multiple samples in one pass. Simply load the stage with your samples and initiate the scan process. This feature also allows you to scan the samples under identical environmental conditions, improving the accuracy and reliability of your data. Large sample size increases possibilities Unlike most AFMs, the Park XE15 can scan a sample of up to 200 mm x 200 mm. This makes it ideal for researchers wanting to scan larger samples or failure analysis engineers who need to place silicon wafers on the stage. Features adaptable to any need The Park XE15 features our most inclusive set of scan modes and can process a range of sample sizes. This makes it uniquely suited to shared labs with a wide range of individual requirements.

Park Systems The Most Accurate Atomic Force Microscope

Park XE15 All the features that make Park AFMs the world s most accurate and powerful The most convenient sample measurements with MultiSample scan Automated imaging of multiple samples in one pass Specially designed multi-sample chuck for the loading of up to 16 individual samples Fully motorized XY sample stage travels up to 200 mm x 200 mm. More accurate scans with Crosstalk Elimination Dual independent, closed-loop XY and Z flexure scanners for sample probe and tip Flat and linear XY scan of up to 100 µm x 100 µm with low residual bow Out of plane motion of less than 2 nm over entire scan range Up to 25 µm Z-scan by high force scanner More accurate height measurements Better tip life, sample preservation, and accuracy with True Non-Contact Mode 10 times larger Z-scan bandwidth than a piezotube based system Non contact means less tip wear and longer tip life Higher resolution imaging than competing AFMs Decreased sample interference for more accurate scans The most user friendly AFM available Open side access for faster sample and tip exchange Intuitive laser alignment with pre-aligned tip mount and unique on-axis, top down view Faster head removal with dovetail lock mount Easy to use interface with automatic settings Versatile range of modes and options Comprehensive set of measurement modes and characterizations make this one of our most versatile AFMs Expanded capabilities with optional accessories and upgrades Advanced electrical measurements for failure analysis (FA)

Park XE15 AFM Technology Flat Orthogonal XY Scanning Without Scanner Bow Park's Crosstalk Elimination removes scanner bow, allowing flat orthogonal XY scanning regardless of scan location, scan rate, and scan size. It shows no background curvature even on flattest samples, such as an optical flat, and with various scan offsets. This provides you with a very accurate height measurement and precision nanometrology for the most challenging problems in research and engineering. Decoupled XY and Z Scanners Accurate Surface Measurement The fundamental difference between Park and its closest competitor is in the scanner architecture. Park s unique flexure based independent XY scanner and Z scanner design allows unmatched data accuracy in nano resolution in the industry. Flat sample surface as it is! Low residual bow No need for software processing (raw data) Accurate results independent of scan location nm Unprocessed raw data 12 8 4 0 Less than 1 nm Park Systems The Most Accurate Atomic Force Microscope

True Non-Contact Mode Preserves Tip Sharpness AFM tips are so brittle that touching a sample will instantly reduce the resolution and quality of the image they produce. For soft and delicate samples, the tip will also damage the sample and result in inaccurate sample height measurements, something that can cost you valuable time and money. True Non-Contact mode, a scan mode unique to Park AFMs, consistently produces high resolution and accurate data while maintaining the integrity of the sample. 1:1 aspect ratio Park AFM Before After Taking 20 Images Accurate Feedback by Faster Z-servo enables True Non-Contact AFM Tapping Imaging Tapping Imaging Quick tip wear = Blurred low-resolution scan Destructive tip-sample interaction = Sample damage and modification Highly parameter-dependent True Non-Contact Mode True Non-Contact Mode Less tip wear = Prolonged high-resolution scan Non-destructive tip-sample interaction = Minimized sample modification Immunity from parameter dependent results

Park XE15 Equipped with the most innovative AFM technology 1 Flexure-Guided Scanner with 100 µm x 100 µm Scan Range The XY scanner consists of symmetrical 2-dimensional flexure and high-force piezoelectric stacks provides high orthogonal movement with minimal out-of-plane motion as well as high responsiveness essential for precise sample scanning in the nanometer scale. 2 Flexure-Guided High Force Z Scanner Driven by a high-force piezoelectric stack and guided by a flexure structure, its rigidity allows it to move at higher speeds in the vertical direction than the scanners used in conventional AFMs. The maximum Z scan range can be extended from 12 µm to 25µm with the optional long range Z scanner (optional). 3 Slide-to-Connect SLD Head The AFM head is easily inserted or removed by sliding it along a dovetail rail. The low coherency of the Super Luminescence Diode (SLD) enables accurate imaging of highly reflective surfaces and precise measurements for pico-newton Force-distance spectroscopy. The SLD wavelength eliminates interference issues for users interested in combining the AFM with experiments in the visible spectrum. 3 4 Multi-sample Chuck The specially designed multi-sample chuck can load up to 16 individual samples, which can be scanned sequentially by MultiSample Scan Automation. The unique head design allows for easy side access to the sample tip. 5 Motorized XY Sample Stage with Optional Encoders The measurement location of the sample is easily and precisely controlled by the integrated motorized XY stage. The travel range of the XY sample stage can be configured for either 150 mm x 150 mm or 200 mm x 200 mm. The encoders, if used with the motorized stages, enable higher positioning repeatability for accurate sample positioning. The encoded XY stage travels in 1 µm resolution with 2 µm repeatability, and the encoded Z stage, in 0.1 µm resolution with 1 µm repeatability. 1 5 Park Systems The Most Accurate Atomic Force Microscope

6 6 High Resolution Digital CCD Camera with Digital Zoom Direct on-axis high resolution digital CCD camera with digital zoom capability allows high clarity and high resolution image quality regardless of panning. 7 Vertically Aligned Motorized Z Stage and Focus Stage The Z stage and focus stage engage the cantilever with the sample surface while constantly maintaining a clear field of vision for the user. And because the focus stage is motorized and software controlled, it has the precision necessary for transparent samples and liquid cell applications. Park XE Control Electronics with DSP Board in Controller 3 7 The nanoscale signals from the AFM are controlled and processed by the high performance Park XE electronics. With its low noise design and high speed processing unit, Park XE electronics successfully realize True Non-Contact mode ideal for nanoscale imaging as well as precise voltage and current measurement. 4 2 High performance processing unit of 600 MHz and 4800 MIPS speed Low noise design for precise voltage and current measurement Versatile system to utilize various SPM techniques External Signal Access Module to access AFM input/output signals Maximum 16 data images Maximum data size: 4096 4096 pixels ADC/DAC in 16 bit, 500 khz speed Electric noise isolation from PC by TCP/IP connection

Park XE15 Why the most affordable AFM is also accurate and easy to use MultiSample Scan Using the motorized sample stage, MultiSample ScanTM enables programmable multiple region imaging in step-and-scan automation. Here s how it works: 1 2 3 4 5 6 Register multiple scan positions defined by a user Image from the first scan position Lift a cantilever Move the motorized stage to the next user defined coordinate Approach Repeat scan The registration of multiple scan positions are easily carried out by either entering sample-stage coordinates or sample de-skewing by two reference points. This automated feature greatly increases productivity by reducing the need for your interaction during the scan process. Direct On-Axis Optics The intuitive direct on-axis sample view from the top allows you to navigate the sample surface easily to find the target area. A high-resolution digital camera with zoom capability allows clarity and great image quality regardless of panning motion. Park Systems The Most Accurate Atomic Force Microscope

Easy Snap by Hand Easy Tip and Sample Exchange The unique head design allows easy side access allowing you to easily snap new tips and samples into place by hand. The cantilever is ready for scanning without the need for any tricky laser beam alignment by using pre-aligned cantilevers mounted on to the cantilever tip holder. Easy, Intuitive Laser Beam Alignment With our advanced pre-aligned cantilever holder, the laser beam is focused on the cantilever upon placement. Furthermore, the natural on-axis top-down view, the only one in the industry, allows you to easily find the laser spot. Since the laser beam falls vertically on the cantilever, you can intuitively move the laser spot along the X- and Y-axis by rotating its two positioning knobs. As a result, you can easily find the laser and position it on PSPD using our beam alignment user interface. From there, all you will need is a minor adjustment to maximize the signal to start acquiring the data. laser beam is always focused on the cantilever upon replacement

Park XE15 Power for any project With a wide range of scanning modes and modular design, the Park XE15 has the power and flexibility you need for any project. Surface Roughness Measurement True Non-Contact Mode Dynamic Force Mode Electrical Characterization Conductive AFM (ULCA and VECA) Electric Force Microscopy (EFM) Piezoelectric Force Microscopy (PFM) Scanning Capacitance Microscopy (SCM) Scanning Kelvin Probe Microscopy (SKPM) Scanning Spreading Resistance Microscopy (SSRM) Scanning Tunneling Microscopy (STM) Time-Resolved Photo Current Mapping (Tr-PCM) Mechanical Characterization Force Modulation Microscopy (FMM) Force-Distance (F-d) Spectroscopy Force Volume Imaging Lateral Force Microscopy (LFM) Nanoindentation Nanolithography Phase Imaging Thermal Characterization Scanning Thermal Microscopy (SThM) Magnetic Characterization Magnetic Force Microscopy (MFM) Electrical and Other Sample Characterization Modes Surface Roughness Measurement Scanning Capacitance Microscopy (SCM) Provides quantitative 2D dopant profiles Conductive AFM Measures the conductivity across the sample regions Si wafer V 0-2.5-5 -7.5-10 0 4 8 12 µm 16 20 Defect Site Failure analysis of contact plugs (3 µm x 3 µm) Ra = 0.94 Å, Rq = 1.18 Å True Non-Contact Mode (1 µm x 1 µm) Magnetic Force Microscopy (MFM) Accurately view your sample s magnetic structure Scanning Thermal Microscopy (SThM) Easily examine your sample s thermal conductivity. SiC substrate Magnetic domain of High-density HDD media (2 µm x 2 µm) Temperature map of the Pole-Tip-Recession of an active hard disk slider (20 µm 20 µm) Ra = 1.342 nm, Rq = 1.709 nm True Non-Contact Mode (20 µm x 20 µm)

Options Active Temperature-controlled Acoustic Enclosure Innovative control brings the system quickly to its temperature equilibrium Temperature stability of less than 0.05 ºC within10 minutes of closing AE door Includes an active vibration isolation system Encoders for Motorized Stage The encoded XY stage travels in 1 µm resolution with 2 µm repeatability. The encoded Z stage travels in 0.1 µm resolution with 1 µm repeatability. Sample Plates Vacuum grooves to hold wafers Sample dimension: Up to 200 mm (150 mm default) 25 µm Z-scanner Head Z scan range: 25 µm Resonant frequency: 1.7 khz Laser type: LD (650 nm) or SLD (830 nm) Noise floor: 0.03 nm (typical), 0.05 nm (maximum) XE Optical Head Optical access: top and side Z scan range: 12 µm or 25 µm Laser type: LD (650 µm) or SLD (830 µm) Noise floor: 0.03 nm (typical), 0.05 nm (maximum) Resonant frequency: 3 khz (12 µm XE Head), 1.7 khz (25 µm XE Head) Clip-type Probehand Unmounted cantilever can be used Tip bias range: -10 V to + 10 V Tip bias function available for EFM and Conductive AFM Support all the standard and advanced modes but STM, SCM, and in-liquid imaging Signal Access Module (SAM) Enables access to various input/output signals for AFM Scanner driving signal for the XY and Z scanners Position signal for the XY and Z scanners Cantilever deflection signals of the vertical/lateral direction Bias signal for the sample and the cantilever Driving signal for XE15 Auxiliary input signal to the system XE-Heads 12 µm XE-Head 25 µm XE-Head XE Optical Head Hysitron Triboscope Adaptor Head Probehands Clip-type Probehand Liquid Probehands (open/closed) SCM Probehand STM Probehand Liquid Cells Universal Liquid Cell Open Liquid Cell Electrochemistry Cell Environmental Control Heating & Cooling Stage Heating Stage Accessories Signal Access Module Cross-sectional Sample Holder Q Controller High Voltage Toolkit Vacuum Chuck Non-magnetic Sample Holder

Park XE15 Specification Scanner XY scanner Single-module flexure XY scanner with closed-loop control Scan range: 100 µm 100 µm Z scanner Guided high-force Z scanner Scan range: 12 µm 25 µm (optional) Vision Sample Mount Direct on-axis vision of sample surface and cantilever Coupled with 10 objective lens (20 optional) Field-of-view: 480 360 µm CCD: 1 Mpixel Sample size: Up to 200 mm Thickness: Up to 20 mm Electronics High performance DSP: 600 MHz with 4800 MIPS Maximum 16 data images Maximum data size: 4096 4096 pixels Signal inputs: 20 channels of 16 bit ADC at 500 khz sampling Signal outputs: 21 channels of 16 bit DAC at 500 khz settling Synchronous signal: End-of-image, end-of-line, and end-of-pixel TTL signals Active Q control (optional) Cantilever spring constant calibration (optional) CE Compliant Power: 120 W Signal Access Module (Optional) Options/Modes Standard Imaging Chemical Properties Dielectric/Piezoelectric Properties True Non-Contact AFM Basic Contact AFM Lateral Force Microscopy (LFM) Phase Imaging Intermittent (tapping) AFM Chemical Force Microscopy with Functionalized Tip Electrochemical Microscopy (EC-STM and EC-AFM) Electric Force Microscopy (EFM) Dynamic Contact EFM (DC-EFM) Piezoelectric Force Microscopy (PFM) PFM with High Voltage Force Measurement Force Distance (F-D) Spectroscopy Force Volume Imaging Magnetic Properties Magnetic Force Microscopy (MFM) Optical Properties Tip-Enhanced Raman Spectroscopy (TERS) Time-Resolved Photo Current Mapping (Tr-PCM) Electrical Properties Conductive AFM I-V Spectroscopy Scanning Kelvin Probe Microscopy (SKPM/KPM) SKPM with High Voltage Scanning Capacitance Microscopy (SCM) Scanning Spreading-Resistance Microscopy (SSRM) Scanning Tunneling Microscopy (STM) Time-Resolved Photo Current Mapping (Tr-PCM) Mechanical Properties Force Modulation Microscopy (FMM) Nanoindentation Nanolithography Nanolithography with High Voltage Nanomanipulation Piezoelectric Force Microscopy (PFM) Thermal Properties Scanning Thermal Microscopy (SThM) Accessories Electrochemistry Cell Universal Liquid Cell with Temperature Control Sample Stages with Temperature Control Magnetic Field Generator Park Systems The Most Accurate Atomic Force Microscope

Stage XY travel range: 150 mm 150 mm, motorized (200 mm x 200mm optional) Z travel range: 27.5 mm Focus travel range: 20 mm, motorized Optional precision encoders for repeatable XY positioning Software XEP XEI Dedicated system control and data acquisition software Adjusting feedback parameters in real time Script-level control through external programs (optional) AFM data analysis software (running on Windows, MacOS X, and Linux) Dimensions in mm 610 mm 670 mm 920 mm 820 mm 1450 mm 1280 mm 850 mm 540 mm XE15 Atomic Force Microscope 650 mm 650 mm

Park Systems Dedicated to producing the most accurate and easiest to use AFMs XE15131125E16B The global headquarters is located at Korean Advanced Nanotechnology Center (KANC) in Suwon, Korea. More than a quarter century ago, the foundations for Park Systems were laid at Stanford University where Dr. Sang-Il Park, the founder of Park Systems worked as an integral part of the group that first developed AFM technology. After perfecting the technology, he then went on to create the first commercial AFM and later Park Systems was born. Park Systems strives everyday to live up to the innovative spirit of its beginnings. Throughout our long history, we have honored our commitment to providing the most accurate and yet very easy to use AFMs, with revolutionary features like True Non-Contact mode, and many automated software. We are not simply content to rest on our past success. All of our products are designed with same care and creativity that went into our first, allowing you to focus on getting results without worrying about the integrity of your tools. www.parkafm.com HEADQUARTERS GLOBAL HEADQUARTERS +82-31-546-6800 AMERICAS HEADQUARTERS +1-408-986-1110 JAPAN HEADQUARTERS +81-3-3219-1001 SE ASIA HEADQUARTERS +65-6634-7470 OCEANIA Australia and New Zealand +61-2-9319-0122 ASIA China +852-2751-9488 India +91-40-2404-2353 Indonesia +62-21-384-6464 Philippines +632-807-2712 Saudi Arabia +966-2-640-5846 Taiwan +886-2-2755-2266 Thailand +662-668-2436 UAE +971-4-339-2603 Vietnam +844-3556-7371 EUROPE AMERICAS France +33-1-6953-8023 USA: +1-408-986-1110 Germany +49-6103-30098-0 Canada: +1-888-641-0209 Italy +39-02-9009-3082 Brazil +55-11-4178-7070 Israel +972-3-923-9666 Switzerland +41-34-423-7070 Romania +40(0)-724-157-480 Spain and Portugal +34-902-244-343 Turkey +90-312-236-42-0708 UK an Ireland +44(0)1372-378-822 Benelux, Scandinavia, and Baltics +31-184-64-0000