| MultiView 1000™ |

The award winning MultiView 1000TM is the first system available that fully integrates all forms of scanned probe microscopy (SPM) with conventional optical microscopy. Such integrations allow for a seemless combination of established far-field measurements correlated with nanometric SPM characterization resulting in a sum which is truly greater than its parts. Designed around Nanonics' patented, award winning 3D FlatscanTM scanner technology and incorporating sophisticated cantilevered optical fiber probes, this instrument can simply and transparently be combined with any inverted, upright, or dual optical microscope.
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Key Features Design Applications Online Integrations Specifications |
MultiView 1000TM has a great advantage of a flexible design that incorporates 3D FlatScanTM scanning stage and Nanonics' cantilevered probes. Such geometry of an SPM head allows for transparent integration with all kinds of upright, inverted and dual optical microscope configurations and thus creates ideal SPM/NSOM integrations with free optical axes. Because the MultiView1000TM system readily sits on the sample stage of any conventional far-field microscope and is compatible with most commercial control systems, users can also incorporate the MultiView 1000TM into pre-existing microscopy systems. Our in-house team of experts also works with each customer on a one-to-one basis to provide customized solutions that suit the particular requirements of the research to be undertaken.
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MultiView1000TM Scheme
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MultiView1000TM side view
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MultiView1000TM top view
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| Transparent glass probe |
3D FlatScanTM Scanning stage
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Probes
The standard probes used in Nanonics systems are cantilevered optical fibers. They provide for normal force feedback, have unique advantages in permitting a second channel of illumination or collection, and allow transparent, integrated and simultaneous far-field, lens-based imaging.
Straight NSOM fiber probes, micromachined cantilevered NSOM probes and standard, silicon AFM probes can also be used with the MultiView 1000TM. In addition, Nanonics produces customized fiber probes to customer specifications, such as probes with tip lengths greater than 500 mm for deep-trench probing and probes with unique force constant and resonance frequency combinations.
Large Z Scan Range
The large, 70-micron x, y and z-range of the Nanonics 3D FlatscanTM makes it ideal for optical sectioning in confocal imaging. Used in this way, the MultiView 1000TM integrates conventional far-field imaging, confocal microscopy, AFM, and near-field optics in a single system.
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| AFM topographic image of 64.5um Z range obtained with the MultiView 1000TM |
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Closed Loop Option
With the inclusion of embedded closed loop sensors, the Nanonics 3D Flat Scanner can return the sample to a precise spot with an accuracy of 20 nm. This is unaffected by hysteresis, creep, non-linearity or aging of the piezoceramic. Therefore, the MultiView 1000TM with closed loop sensors can perform linearization of the scanner both on-line and off-line during a scan.
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Closed loop 3DFlatScanTM scanning stage
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Overall, the MultiView 1000TM is a robust and versatile SPM system which allows the user to zoom, with overlapping fields of view, from the lowest resolutions of conventional Far-field imaging to the higher resolutions of confocal microscopy, and finally, to the ultimate resolutions of AFM and NSOM.
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One Head: All Modes of NSOM
MultiView 1000TM allows for online AFM and NSOM imaging with unique solutions for bridging near-field scanning optical microscope (NSOM), far-field optics and AFM nanocharacterization. All NSOM modes including reflection, transmission, collection are obtained in full correlation with the AFM and performed at the same head with no change of probe, SPM head, objective etc. The above is possible thanks to the following exclusive solutions:
- Full integration with all forms of conventional microscopes including upright, inverted and dual configurations
- Cantilevered NSOM fiber probes with normal force sensing technology, smallest apertures seizes and fully transparence to the Z optical axis from below and above.
- Optically friendly 3D FlatScanTM Scanner
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All Modes of NSOM
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There are four possible NSOM modes of operation:
Transmission Mode Imaging: The sample is illuminated through the probe, and the light passing through and interacting with the sample is collected and detected.
Reflection Mode Imaging: The sample is illuminated through the probe, and the light reflected from the sample surface is collected and detected.
Collection Mode Imaging: The sample is illuminated with a macroscopic light source from the top or bottom, and the probe is used to collect the light from the sample surface.
Illumination/collection mode imaging: The probe is used for both the illumination of the sample and for the collection of the reflected signal.
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Detection of the collected light can be achieved with a wide variety of instruments: an Avalanche Photo Diode (APD), a Photomultiplier Tube (PMT), an InGaAs Detector, a CCD, or a spectrometer. The signal obtained by these detectors is then used to create an NSOM image of the surface. In addition, Nanonics' unique cantilevered glass probes have no Raman background - as opposed to silicon probes - and have completely transparent, exposed AFM tips.
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| A: Topographic AFM image of a Photonics Band Gap (PBG) structure, imaged with a 150nm AFM/NSOM cantilevered probe |
B: Online correlated NSOM image of the PBG structure at (A). Imaged with the same probe in reflection mode at a 532nm laser wavelength |
The movie shows changes in the reflected laser intensity (small green spot) as collected by the lens of an upright optical microscope from above. The intensity alteration occur as the probe is kept in the near-field by AFM feedback while the sample is scanning
Other Applications
- Thermal Imaging
- Thermo-resistance (Thermo-conductivity) Imaging
- Electrical Imaging
- Electrochemical and Scanning Electrochemical Microscopy (SECM)
- Fountain Pen NanoLithography (FPN)
- Nano-Ink Jet Printing
- NanoIndentation
- NanoManipulation
- Magnetic Force Microscopy (MFM)
- Kelvin Probe Microscopy (KPM)
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MultiView 1000TM Online Integrations
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Optical Microscopy
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Raman Spectroscopy
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SEM/FIB
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Environmental Chambers
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Optical Integration
The first SPM That Can Be integrated into Upright, Inverted & Even 4 Pi Optical Microscopes Which are the Most Advanced Form of Optical Microscopy
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| MultiView 1000TM on a Standard Upright Microscope |
MultiView 1000TM on a 4Pi Dual Microscope |
MultiView 1000TM on a Standard Inverted Microscope |
Raman Integration
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MultiView 1000TM directly mounted on Renishaw Invia Raman Spectrometer.
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On-line & Simultaneous AFM and Raman:
- Raman intensities for the first time can be effectively compared with AFM based autofocus
- Significant resolution improvements are achieved even without near-field techniques
- Other on-line advantages
- Surface enhanced techniques can be transparently applied
See more about Raman AFM/Raman
SEM/FIB
Complementary and transparent on-line operation of both SEM and AFM imaging techniques in one system allows for a synergism of operaiton for example rapid SEM placement of the SPM probe over a large field, verification of the integrity of the probe, on-line electrical measurement of nanostructures for on line carrier concentration and other nanocharacterization tasks as delineated in this presentation.
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MultiView 1000TM inside SEM
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Clode-up View
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Free optical axis inside SEM
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Environmental Chamber
The Nanonics EnviroView 1000TM is built upon the unique technology of the Nanonics MultiView 1000TM microscope. Nanonics EnviroView 1000TM allows for controlled environmental of the NSOM or SPM system that has a completely free optical axis and can be integrated with all modes of optical microscopy
- Precise humidity control
- Unobstructed optical axis
- Gas inlet port
- Chemical Delivery by nanopipette
- 10-6 Torr High Vacuum Chamber
- Transparent integration with any optical microscope, including dual microscopes
- Complete freedom of optical microscope nose piece rotation
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| AFM |
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| Atomic force Microscopy |
Contact, non contact, intermittent contact (shear force optional). |
| Feedback Mechanism |
Optical beam deflection Optional: Tuning fork (shear force). |
| Scanner/Sample |
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| Sample Scanner |
Piezoelectric Based Flat Scanner (3D Flat Scanner™) Height 7mm |
| Scanner Range |
Up to 100 microns in X, Y and Z axis. (Smaller scanners are also available) |
| Scanner resolution |
< 0.005 nm (Z)< 0.015 nm (XY)< 0.002 nm (XY) low voltage mode |
| Sample Size |
Up to 16 mm standard.
Unconventional Geometries: Hanging samples for edge profilingand other unconventional geometries possible |
| Positioning |
Sample rough positioning:- 6mm rough positioning of sample via piezo inertial motion. - Fine sample movement through piezo offsets.
- XY stage rough movements of 50mm |
| Closed Loop |
Closed Loop operation for scanning and positioning. |
| Probes |
Nanonics NanoToolKitTM including specialized glass probes with exposed tip geometry & all forms of silicon cantilever probes |
| Available Modes of Operation |
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| Liquid Cell |
For AFM, NSOM and other SPM measurements in liquids with a completely free optical axis allowing for all modes of optical imaging including phase imaging. In addition to all standard silicon cantilevers, cylindrical glass cantilevers for AFM and NSOM operation are provided. Such cylindrical cantilevers are not damped by the liquid environment and permit AFM operation without Q control allowing for higher fidelity in AFM and NSOM liquid imaging. |
| Thermal Imaging |
Static and dynamic thermal measurements in very localized regions with high precision through Nanonics Thermocouple Probes. These probes consist of a tapered wire running through a metal-coated, glass nanopipette. The external metal coating extends over the protruding wire to create a junction across which the voltage drop is temperature dependent. The time response of this thermocouple is orders of magnitude higher than any other thermocouple in existence. |
| Thermo-resistance (Thermo-conductivity) Imaging |
Providing thermal conductivity or resistance measurements alongside standard non-contact or intermittent contact normal force AFM. MultiView 1000TM with the Nanonics Double-Wire Thermoresistive Probes allows for exclusive Thermal Conductivity imaging under the intermittent contact mode. Furthermore, The probes also can act as a nanoheater for heat induced point alterations up to 700ºC which can be used for the induction of phase transitions or thermally induced chemistry. Nanonics Double-wire Thermoresistive probes allow for :
- Thermal Sensitivity of < 10moC
- Thermal Response time < 20µs.
- Measured Resistance Change per Degree: 0.38 Ohm/oC |
| Electrical Imaging |
- Conductive AFM imaging and electrical nano-characterization through localized I-V measurements are provided with unique normal force sensing glass insulated wires and coaxial glass insulated wires probes that are electrically stable and free from oxidation.- Few tens of ohms contact resistance for probes <100nm |
| Electrochemical and Scanning Electrochemical Microscopy (SECM) |
Unique protocols of Electrochemical sensing through the Electrochemical & SECM probes consist of a tapered metal wire running through a glass nanopipette, the normal force sensing probes, customized liquid cells and the friendly integration with optical microscopes. |
| Fountain Pen NanoLithography (FPN) |
Nano-Chemical lithography of liquid and gas delivery through capillary nanopipette probes with the control of AFM feedback system tip position and correlation. Variety of liquids, gases and surfaces are used with the Nanonics 3D lithography package and NanoChemwrite™ Software Package to obtain nanolithographic patterns. The only System allowing for gas writing with a controlled environment chamber fully integrated into optical microscopy. Environmental chamber also permits controlled environments of gases or humidity for chemical or other writing tasks. Nanoheaters available for thermally induced chemical writing and near-field optical point light sources for optically induced chemical writing. |
| Nano-Ink Jet Printing |
Controlled and accurate deposition of liquids through Electro-phoretic or electro-osmotic electrical pulses provided inside and outside a capillary nanopipette probe. |
| NanoIndentation |
Application of MegaPascals of force, allowing exact positioning and controlled application of force with on-line analysis with open Z axis for optical integrations for top and below.
Standard nanoindentation parameters and protocols including Young’s modulus, Indentation Modulus, Indentation Creep, Indentation Hardness, Adhesion Progressive load, Constant load and Multipass Scratch & Wear tests Including Force-displacement curves and scratch and wear tests with variable force, rate, length and direction.
Wide variety of of nanoindentors including Berkovich probes and High force constant (100 to300 N/m) quartz conical indenters with customization. |
| NanoManipulation |
Controlled placement and movement of features, scratchs and other nanomanipulation task. |
| Magnetic Force Microscopy (MFM) |
Magnetic Force Imaging fully correlated with AFM topographic imaging with the accurate pixel-by-pixel lift up mode. |
| Kelvin Probe Microscopy (KPM) |
MultiView 1000TM allows for surface potential microscopy with Nanonics special electrical probes. |
| Environmental Control |
Controlled environment chamber with full integration into an optical microscope.Also permits 100x0.7NA viewing from below.Monitored humidity capabilities: 5% - 95% with error of 0.2%Inlets for other substances for environmental controls, including additional gas inlet for the environmental control.Cooling to 4°C – Heating to 40°C of the chamber. Ideal for Biological samples. |
| Sample Cooling/Heating |
Ability to heat solid state samples up to 350 degrees centigrade and cool samples to -20 degrees centigrade using evacuated environmental chamber as above. |
| Controller & Software |
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| Control System |
Supports various imaging modes with up to 16 simultaneous online channels for real time imaging. Full access to all signals and readily integrated with external signals from other sources.
All ADCs are 16 bit and DACs have 16-bit resolution |
| Software |
QuartzII software and NWS LabView based software with interface for integration with external devices.
User friendly 32-bit Windows application available for Windows NT and XP |
| Lock-in |
Built-in Lock-in Amplifier,
Direct Digital Synthesizer (DDS) system for frequency and phase adjustment with 32-bit frequency determination and 20-bit phase determination |
| High Voltage Output |
-145 v to +145v for XYZ axis. |
| Online Integrations |
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| Optical |
Free optical axis from above and below the sample for integration with all forms of optical microscopes including upright, inverted and dual geometries.
Upright objective: 100x , 0.75NA and all available objectives including oil immersion for inverted microscopes. |
| Far-field |
All conventional far-field optical modes of operation are available, including Micro-Raman, confocal, phase imaging and differential interference contrast, Refractive Index Profiling. The completely free optical axis from above and below in all Nanonics MultiView Systems also allows for integration with (4Pi) dual microscopes for non-linear optical techniques including second harmonic and sum frequency generation microscopes, third harmonic imaging, coherent anti-Stokes Raman microscopes and stimulated emission depletion microscopy.
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| Near-field (NSOM) |
MultiView 1000TM allows for online AFM and NSOM imaging with unique solutions for bridging near-field scanning optical microscope (NSOM), far-field optics and AFM nanocharacterization. All NSOM modes including reflection, transmission, collection are obtained in full correlation with the AFM and performed at the same head with no change of probe, SPM head, objective etc. |
| Other Integrations |
· Scanning Electron Microscopy (SEM) and Focused Ion Beam (FIB).· Online spectroscopy options including Raman spectroscopy packages from a variety of Raman suppliers.· In addition to complete and transparent integration with beam scanning confocal microscopes, the MV 1000 provides stage scanning confocal microscopy with on-line AFM auto-focus and pixel by pixel structural correlation. With such advantages, resolution below 200 nm is achieved. |
| Detectors |
Photomultiplier Tube, Avalanche Photo Diode or InGaAs Detectors for wide spectral range of 160nm – MidIR. |
| Video system |
On Line CCD video imaging |
| Lasers |
Variety of lasers can be used from deep UV to near-IR |
| Imaging Resolution |
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| Far-field |
Diffraction limited |
| Confocal |
200nm |
| NSOM |
<100nm on installation; 30nm probes available |
| Topographic |
Z noise < 0.05nm rms. XY lateral resolution: Convolution of tip diameter & sample. |
| Thermal |
100nm |
| Resistance |
From 25nm |
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Phone: +972-2-6789573 |
Fax: +972-2-6480827 |
USA Toll Free (direct to sales): 1-800-289-7162 |
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| Image Gallery |
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| Chemical Imaging |
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| Image Gallery |
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| Resistance Imaging of PN Junction |
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| Image Gallery |
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| AFM/NSOM-Transmission Measurements of Healthy Human
Dermal Fibroblasts in Liquid
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