Scanning Probe Microscopes

Similar documents
Characterization of Materials with a Combined AFM/Raman Microscope

Hysitron TI 980 TriboIndenter. Innovation with Integrity. Tribology and Mechanical Testing

Hysitron TI 980 TriboIndenter. Innovation with Integrity. Tribology and Mechanical Testing

Magnetic Force Microscopy: nanoscale magnetic imaging and lithography

AFM-Raman Characterization of Pharmaceutical Tablets

PeakForce Tapping and ScanAsyst An introduction to the technique featuring Bruker s Dimension Edge. Bede Pittenger, Ph.D.

Acoustic and Vibration Isolation for Asylum Research AFMs

OSU MATERIALS RESEARCH SEED GRANT PROGRAM AWARDS

Dynamic Nanoindentation Characterization: nanodma III. Ude Hangen, Ph.D

Nanoindentation, Scratch and nanodma : Innovations for Atomic Force Microscopes. Ryan Stromberg

XPM: High Speed Nanoindentation and Mechanical Property Mapping. Eric Hintsala, Ph.D

MultiMode 8 Upgrade. Benefits of Upgrading to the High-Performance AFM Benchmark

Full Nanomechanical Characterization of Ultra-Thin Films

CREOL, The College of Optics & Photonics, University of Central Florida

MAKE NO MISTAKE, IT S UV THAT EVERYONE CAN USE. LAMBDA 265 / 365 / 465 UV/Vis Solutions

FY06 ACCOMPLISHMENTS. Nanoelectronics Manufacture, Inspection, and Repair using Thermal Dip Pen Nanolithography

Nanomechanoelectrical characterization applications in fuel cells and organic photovoltaics

Supporting Information to Carbon Nanodots Towards a Comprehensive Understanding of their Photoluminescence

Satoshi Kawata. Near-Field Optic s and Surface Plasmon Polaritons

Park Systems Leading innovation in emerging nanoscale microscopy and metrology technology

3D Laser Lithography in Biotechnology and Medical Technology

INSTRUMENTAL TECHNIQUES FOR PARTICLE SIZE DETERMINATION

Keysight T150 UTM. Universal Testing Machine. Data Sheet

nano-ta TM : Nano Thermal Analysis

The Unlimited World of Applications for Nano & Photonics. Benno Oderkerk CEO Avantes BV, Apeldoorn, The Netherlands

High-Resolution, Electrohydrodynamic Inkjet Printing of Stretchable, Metal Oxide Semiconductor Transistors with High Performances

Keysight Technologies Laser Heated Tip and High Temperature Stage for G200 Nano Indenter. Data Sheet

Keysight Technologies Imaging with Self-Sensing Cantilever on Keysight 5500/5600LS Atomic Force Microscopes. Application Note

DeltaPro. DeltaFlex FORENSICS PARTICLE CHARACTERIZATION ELEMENTAL ANALYSIS FLUORESCENCE GRATINGS & OEM SPECTROMETERS OPTICAL COMPONENTS RAMAN

Friction, Scratching/Wear, Indentation, and Lubrication Using Scanning Probe Microscopy

NIR Checkmaster Near-infrared spectroscopy On-line analysis of active ingredients during tablet production

NanoSystemsEngineering: NanoNose Final Status, March 2011

Transmission Kikuchi Diffraction in the Scanning Electron Microscope

Status of the DESY NanoLab Project

Morphology of Thin Aluminum Film Grown by DC Magnetron Sputtering onto SiO 2 on Si(100) Substrate

YIELD & TENSILE STRENGTH OF STEEL & ALUMINIUM USING MICROINDENTATION

The Raman effect, discovered in 1928 by C.V. Raman in his

Confocal Microscopy Analyzes Cells

Fabrication and STM Nanostructuring of tetrahedral amorphous Carbon. Teja Roch

Low temperature deposition of thin passivation layers by plasma ALD

DSC differential scanning calorimeter (DSC)

Featuring Analyst software under Windows NT for enhanced performance and ease of use. API 150EX. LC/MS System

Digital resolution enhancement in surface plasmon microscopy

Evaluation of Interphase Properties in Fiber Reinforced Polymer Composite Using Contact Resonance Force Microscopy

Plasmonics: Application-oriented fabrication. Part 1. Introduction

Enhanced Response from Engineered Nano Treated Peizofilm

EDGE CHIPPING RESISTANCE USING MACROINDENTATION TESTING

Application of the interference method of studying the surface for quality control and internal structure of the luminescent crystals and

CB x 33 x 70 cm

ADHESIVE CURE MONITORING WITH ACOUSTIC METHOD

Syringe Pumps. Please contact us for help in selecting the best pump for your application and a free quote.

Greenhouse Gas Measurement Technology

Fluke Oscilloscope Calibration Solutions. Helping you measure up to the highest standards

The AFM Probe - Fundamentals, Selection, and Applications

Phase Transitions Module γ-2: VSM study of Curie Temperatures 1 Instructor: Silvija Gradečak

Proudly serving laboratories worldwide since 1979 CALL for Refurbished & Certified Lab Equipment QTRAP 5500

Application of ultra-thin aluminum oxide etch mask made by atomic layer deposition technique

nanodsf 2bind: Your service provider for biophysical characterization of proteins Precisely revealing protein folding and stability

State of the art quality of a GeOx interfacial passivation layer formed on Ge(001)

R Sensor resistance (Ω) ρ Specific resistivity of bulk Silicon (Ω cm) d Diameter of measuring point (cm)

PRECISION OPTICAL FILTERS BY EOSS - ENHANCED OPTICAL SPUTTERING SYSTEM. Fraunhofer

Microscopic Damage of Tungsten and Molybdenum Exposed to Low-Energy Helium Ions

Confocal Microscopy of Electronic Devices. James Saczuk. Consumer Optical Electronics EE594 02/22/2000

Piezoelectric All-Rounder

EV Group 300mm Wafer Bonding Technology July 16, 2008

CHAPTER 3 IMPROVEMENT OF DYNAMIC CHARACTERISTICS OF CUTTING TOOL SYSTEM USING VISCOELASTIC DAMPER

Repetition: Adhesion Mechanisms

DESIGNING WITH WAVY COMPOSITES

Nanobiotechnology. Place: IOP 1 st Meeting Room Time: 9:30-12:00. Reference: Review Papers. Grade: 50% midterm, 50% final.

SUPPLEMENTARY INFORMATION

Application Note #1007 All-Inclusive Scratch Testing of Coatings and Thin Films Using Bruker's Universal Test System

Self-Assembled Nanocrystals Through Change in. Nanocrystallinity

NovoCyte Flow Cytometer

Sapphire SF: Low-Noise Ultra-Narrow Bandwidth Performance Delivers Superior Raman Spectroscopy Results

Silicon Nitride Probes

Surface Plasmon Resonance Systems

Transmission Electron Microscopy (TEM) Prof.Dr.Figen KAYA

Supporting Information

Imaging of in Vitro Collagen Fibers by Atomic Force Microscopy

Vibration Control SCHWINGMETALL. The Original Rubber-To-Metal Bonding from ContiTech

350 C for 8 hours in argon atmosphere. Supplementary Figures. Supplementary Figure 1 High-temperature annealing of BP flakes on SiO 2.

Amorphous Oxide Transistor Electrokinetic Reflective Display on Flexible Glass

Thin Film Characterisation Methods

PinAAcle 500. Flame Atomic Absorption Spectrometer

Universität Hamburg, Hamburg, Germany. Universität Hamburg, Hamburg, Germany

Thermal Annealing Effects on the Thermoelectric and Optical Properties of SiO 2 /SiO 2 +Au Multilayer Thin Films

Characterization of Cellulose Nanocrystal Surfaces by SPM

Thin, Smooth Diamond for Breakthrough Solutions

Thermal Analysis Excellence

12.0 Materials for Missile, Space, and Launch Systems

X-ray Photoelectron Spectroscopy

Laser Synthesis of Metal Oxide Crystals with the Use of Carbon Nanotubes

SORTEX B range. Optimising conventional sorting.

BioScope Catalyst Life Science Atomic Force Microscope

Optimization of optical performances in submicron silicon-on-insulator rib and strip waveguides by H 2 thermal annealing

An Advanced Reliability Improvement and Failure Analysis Approach to Thermal Stress Issues in IC Packages

Superionic Solid State Stamping (S4)

Plasmonic Probe With Circular Nano-Moat for far-field Free Nanofocusing

Biofluids Analysis: Human Serum with High Throughput NMR

Transcription:

Scanning Probe Microscopes Nano NTEGRA Spectra NTEGRA Prima NEXT www.ntmdt.com

NTMDT: Customer, Technology, Integrity Our primary goal is customer success in exploring the nanoworld with our innovative microscopes. We combine our strong motivation, fundamental knowledge, multi-year experience, hard-working ethics, and full integrity to make this possible. The NT-MDT Way Over the last 25 years, NT-MDT has been involved in the development, production, and support of research instrumentation, primarily, scanning probe microscopes for nanotechnology and its applications. Our pathway has been marked by a creation of a few thousand different devices, whose functions and capabilities cover the broad range of customer needs in different areas: university education, academic and industrial research. NT-MDT pioneering efforts led to the impressive combination of scanning probe microscopy with Raman spectroscopy. The fundamental knowledge and continued thirst for innovation of our team members stems from being educated at the highly regarded Moscow Institute of Physics and Technology (MIPT) and other top schools. This has created a solid background for advanced company activities. Strong NT-MDT/MIPT ties throughout many years provide the influx of young and motivated intellectuals to our company, which has proven invaluable to our progress. Prof. Victor Bykov - the founder of NT-MDT This is one of many important factors that make the company successful. The others include strong team integrity and personal accountability in all segments of our company from creative design work, to the precise engineering and manufacturing, the quality control, and customer support at all levels. The excellence of our microscopes has been proven in numerous applications many of which were developed and demonstrated by NT-MDT scientists, who strive to expand the SPM capabilities for comprehensive and quantitative analysis of material surfaces and properties down to the molecular and atomic scales. 2011 2009 Nano 2006 NEXT 2004 1989 NTEGRA Spectra NT-MDT is born 1990 NTEGRA Prima 1997 SOLVER-P47 STM MDT-1 2

Unique NT-MDT SPM Features We are now proud to provide NT-MDT microscopes with the most advanced features, which include but not limited to the following: An expanded set of resonance oscillatory AFM modes: - Amplitude modulation with Phase Imaging The surface profile and probe phase changes are detected and mapped while the probe frequency and amplitude are fixed. - Amplitude modulation with Frequency Imaging The surface profile and probe frequency are detected and mapped while the probe amplitude and phase are fixed. - Frequency modulation The surface profile and probe amplitude are detected and mapped while the probe frequency shift and phase are fixed. F D A non-resonant oscillatory HybriD mode allowing direct and fast force detection for quantitative and high-resolution mapping of local sample Force Set-point deflection Stiffness Distance properties Baseline Adhesion t A suite of AFM-based electric modes that includes single and double pass techniques for measuring surface potential and capacitance gradients and unique thermoelectric imaging The exceptional low-noise and low thermal drift enclosure for stable imaging for a variety of applications 100 nm 51 min 100 nm Thermal Drift < 0.2 nm/min An open architecture software with multiple ways for controlling and monitoring the electronic signals during experiments starting with soft probe engagement Amplitude Soft Engagement Phase Probe Oscillator Ipr Bias Ext 5 GND GND Probe Sample Z-Approach Manual Computer simulation tools for theoretical evaluations of tip-sample interactions and their manifestation in most experimental AFM modes Low Force AM Images Tip Radius 150 pm Tip Radius 5 nm 3

NT-MDT microscopes are equipped with closed loop scanners and are compatible with a wide range of accessories and a temperature stable enclosure providing exceptional noise protection. Nano Effective Solution for Education and Research SPM heads for novice and expert users Apprentice toolkit Flexible choice of probes Compact design and affordable cost NT-MDT Nano is a robust, small footprint SPM with a wide range of features: -- Educational head for STM & AFM intermittent contact mode by user made tips. -- Student toolkit to etch probes. -- Research head for most common AFM modes with commercially available tips. -- Routine imaging of nanoscale structures. Block copolymer Microporous membrane Celgard 300 nm C60H122 alkane on HOPG 2 mm 2 mm Nitrocellulose membrane NTEGRA Prima - Flexible Device for Routine and Advanced Applications Open architecture Tip/sample scanners Wide range of configurations/heads Broad temperature range NTEGRA Prima an Open-Architecture Modular Device for Advanced Research: -- Environmental and high-temperature measurements -- Specialized measurements with external magnetic fields -- Combination with Near-Field Optical Microscopy and Raman Spectroscopy -- Scanning in liquids with temperature control and flow-through capabilities -- Flexible scanning geometries and ranges Current 10 mm Polymer blend P3HT/PCBM Voltage (Seebeck) Map 10 mm Metallic alloy Bi/Sn 4

A powerful software package provides our users with flexibility to monitor and control a broad range of operational signals, starting with those used for soft probe engagement. NEXT Prime Automated Microscope Easy to use microscope with advanced capabilities Automated head exchange Automated laser/photodetector alignment Superscan and stitching capabilities NEXT is a unique system that provides researchers with outstanding performance and a wide range of capabilities. Specifically, it removes gap between optics and SPM by offering the users surface imaging from mm range down to the atomic scale. The exceptional functioning and automation of the alignment routines of this microscope make it the best candidate for high throughput studies in multi-user environments. Surface Potential 3 mm F14H20 fluoroalkane on HOPG (3D) 40 mm Polymer blend PVDF/PVAC 40 mm Crystal of C242H486 Etched Si Thermal Cabinet for NT-MDT Microscopes Unique solution for high-performance microscope environment Exceptional temperature stability Low-thermal drift medium Excellent acoustic and vibrational isolation This new fan-free enclosure provides NT-MDT microscopes the capability to operate at conditions of extraordinary temperature stability within 5 millidegree C. This guarantees the exceptionally low thermal drift of less than 0.2 nm/min. The cabinet also protects the positioned microscope from external acoustic and vibrational noises with passive and active means of damping. Time Plot of Temperatures of Sample Location and Room 0 C 31 sample location 0.005 0C 29 27 4 nm 25 10 nm Mica room 23 0.0 MoSe2 5 30.0 60.0 90.0 120.0 150.0 min

NTEGRA Spectra Enables AFM/Optics Synergy Co-localized AFM and optical measurements Near-field Optical Microscopy (SNOM/NSOM) Tip Enhanced Raman Scattering (TERS) With NT-MDT, Thermo Scientific, Renishaw and other spectrometers Focus track for optical measurements NTEGRA Spectra is an integrated solution for simultaneous AFM and Confocal Raman, Fluorescence, SNOM, TERS measurements. The instrument supports multiple AFM/Optics geometries enabling studies both in air and liquid. Comprehensive characterization of materials is achieved in combined mapping of chemically specific Raman bands and local mechanical and electrical properties. Raman mapping with nanometer resolution can be obtained by means of TERS. Similar resolution can be achieved for studies of plasmonic materials. AFM Raman, PVAC Raman, PS Counts 3000 PVAC - red PS - blue 2000 1000 0 2700 2900 3100 1/cm Polymer blend PVAC/PS AFM/Optics Configurations for Illumination/Collection a d b e D-Band, D-Band, TERS TERS Map Map c f Inverted (b) Full transmission ( 4-Pi ) (c) Side-Illumination (d) SNOM: Optical fibers (e) and smart probes (f) The open-design of NTEGRA Spectra facilitates a broad spectrum of AFM/Optics applications for characterization of local chemical content, dielectric and plasmonic features in complex samples of various origins. They include polymers, carbon-based compounds, bio-materials, semiconductors etc. Spatial resolution of such measurements has approached the nanometer scale. AFM Overlayer of Raman Maps of CdS (green) and PANI (red) Graphene oxide Upright (a) CdS & polymer nanowires 6 SNOM, Whispering gallery modes 3 mm Semiconductor microdisc

PX Controller the Core for High-Quality & Advanced SPM Built-in 5 lock-in amplifiers Detection channel up to 5 MHz Modular design Support all NT-MDT microscopes Our powerful PX digital controller incorporates a low-noise high voltage generator (< 1 mv/600 V), five lock-in amplifiers and sensitive detection electronics (up to 5 MHz) enabling measurements with negligible deflection noise (~25 fm/ Hz). The latter helps to make imaging in the atomic-scale as the routine procedure. The controller features provide a microscope user with a large spectrum of imaging and in single- and multi-frequency operations, which tremendously expand the research capabilities for visualization of surface structures and local quantitative studies of materials properties down to the nanoscale. Surface Potential dc/dz 1w dc/dv 2w 3w F14H20 fluoroalkanes on HOPG Hybrid Controller the True Gateway to New SPM Generation Fast signal detection and FPGA processing PLL and multiple digital broadband lock-in amplifiers Full synergy with Px controller Recently, NT-MDT microscopes were enhanced by the new Hybrid controller, which expands their instrumental and application capabilities by employing a high-speed (20 MHz) data acquisition and fast real-time data processing with FPGA at 80 MHz. New modes and applications are emerging with quantitative nanomechanical analysis in Hybrid mode being already routinely applied for elastic modulus mapping with 10-nm resolution. The expanded set of the oscillatory modes and other newly developed features (e.g. thermoelectric measurements) make the NT-MDT user the most powerful researcher compared to the practitioners of other SPM devices. Current Elastic Modulus t igh He m 6m 3.5 mm stic Ela 3.5 mm Carbon nanotubes on Si Polymer blend PVDF/sPS 7 s ulu d Mo Blockcopolymer PS/PMMA

NT-MDT America Inc. 7910 S Kyrene Rd, #107-108, Tempe, AZ 85284 602-606-2092 info@ntmdt-america.com www.ntmdt.com NT-MDT Head Office Building 100, Zelenograd, Moscow, Russia 124482 +7 (499) 735-7777 spm@ntmdt.ru