Take a look at the critical specifications of nanoREV^TM Ambient Air STM.

Scan Area from atomic resolution upto 3.8μm x 3.8μm. Min resolution : 6pm I-V Spectroscopy with Sample Bias ranging from -10V to +10V. Piezoelectric Approach Mechanism. Small Vibration Isolation Platform footprint : 17cm x 17cm.

SiM – Advanced data acquisition analysis software. 3D-rendering of STM images. Line Profile extraction. Data exported to standard formats like ASCII, jpg, png etc.

Elegant installation – No additional vibration isolation required at all. Swift and easy tip and sample changes. Tunneling Current and Feedback voltage signal output for CRO monitoring.

Visit the fascinating  nanoREV^TM STM Image Gallery to have a glimpse of the nanoscale realm revealed by it. Also check out the HowTo Videos to see nanoREV^TM STM in action.

Why nanoREV?

Expertise and experience

In the field of mechanics, vibration isolation, piezo-sensors, feedback-control, high voltage power supplies and amplifiers, data-acquisition software etc. to accelerate   nano-technology and related research and development. Experience of the team involved ensures time-bound, effective and optimal solutions to the challenges posed.

Zero Downtime

Our service and support system is targeted to maintain seamless operation of the STM facility. The updates, enhancements and replacements are made immediately with ensuring its uninterrupted usage.

Customization and regular updates

It much more than just an STM, its a sustained relationship with us in building and enhancing the technology, which is an outcome of the quest for further exploration and improvement. The feedbacks of our users have consistently improved and enhanced the whole system.  We are committed to keep the hardware and software updated at the user end.

What is in a name – nanoREV? … Revelations of the nano-world !!

STM Measurements
Sizes	Maximum Area	Minimum Area	X/Y Resolution
Large	3.7μm x 3.7μm	14.8nm x 14.8nm	0.06nm
Small	375nm x 375nm	1.5nm x 1.5nm	0.006nm
Z-Resolution	Analog Mode: 8-10pm, Digital Mode: 15pm (Using 16-bit DAC)
Scan Orientation	Horizontal and Vertical
Max Z Range	±350 to ±500nm (Full Stretch and Full-Retract)
Imaging Modes	Constant Current (CC) mode Constant Height (CH) mode Dynamical Conductance or Local density of states (LDOS) imaging Local Barrier Height Imaging (LBH Imaging)

Electronics
Scan Signals	4-channel 16-bit DACs
Measurement Channels	4-channel 16-bit ADC
Sample Bias	-10V to +10V in steps of 0.3mV -100V to +100V in steps of 3mV
I-V Spectroscopy	0.3mV bias resolution for 1750 data points, Numerical dI/dV & Normalized dI/dV plots dI/dV with Lock-in-Amplifier Export to ASCII option available
I-Z Spectroscopy	Tunneling Current vs tip-sample distance plots Conductance vs Distance plots (Normal & Semilog) Export to ASCII option available
Slope Correction	Digitally-controlled X/Y slope correction
Coarse Approach	Micro-controller based Walker Control with LCD display
Tunnel Current	±10nA in steps of 5pA (100nA option available)

Software: SiM (STM iMproved)
Image Display	Dual Mode (Scan and Retrace) Image Display with live scan CRO.
Display Modes	Both 2D and 3D displays, customizable look-up tables for  pseudo image coloring.
Analysis	Line Profile Extraction, X/Y Slope Correction, Fourier Transforms and Filters, Selective Zooming, Calibration etc.
Data Export	Exports to ASCII, jpg, png, postcript formats.
Processing	Spatial and Fourier Low-Pass Filtering, Background Subtraction, Histogram Equalization, Zooming, Contrast, Slope Correction etc.
Lithography	Applying controlled voltage pulses to the sample.
OS	Installers available for the latest Ubuntu LTS Distributions.

Journal Publications with the nanoREV STM :

1. (2022) Effect of silver nanoparticles on electrical and magnetic properties of reduced graphene oxide. Prajwal Chettri, Ajay Tripathi & Archana Tiwari.
2. (2021) Synthesis of nanodiamonds using liquid-phase laser ablation of graphene and its application in resistive random access memory. Anna Thomas, M. S. Parvathy & K. B. Jinesh.
3. (2020) Programmable electronic synapse and nonvolatile resistive switches using MoS2 quantum dots. Anna Thomas, A. N. Resmi, Akash Ganguly & K. B. Jinesh.
4. (2019) Influence of surfactants on the electronic properties of liquid-phase exfoliated graphene. Sheena S. Sukumarana, Saurabh Tripathi, A. N. Resmi, K. G. Gopchandrana & K. B. Jinesh
5. (2018) Low power organic field effect transistors with copper phthalocyanine as active layer. Lekshmi Vijayan, Anna Thomas, K. Shreekrishna Kumar & K. B. Jinesh.
6. (2017) Studies of Surface Electrical Properties of Al doped ZnO Nanorods by STM. Shaivalini Singh, Sumit Vyas, Parthasarthi Chakrabarti & Si-Hyun Park.
7. (2017) H2O2 sensing using HRP modified catalyst-free ZnO nanorods synthesized by RF sputtering (2017). Amit Srivastava, Naresh Kumar, Priti Singh & Sunil Kumar Singh.
8. (2017) Anisotropic Phase Formation Induced Enhancement of Resistive Switching in Bio–based Imidazolium Ionic Liquid Crystals, Renjith Sasi, K. B. Jinesh & Sudha J. Devaki.
9. (2017) Detecting sub-nanometer transverse vibrations on a piezo crystal oscillator surface, using time series tunneling current measurements. Dibya J. Sivananda, Amit Bannerjee & S. S. Bannerjee.
10. (2017) P-channel thin film transistors using reduced graphene oxide. S Chakraborty, A N Resmi, P. Renuka Devi & K. B. Jinesh.
11. (2017) Single quantum dot rectifying diode with tunable threshold voltage. Gopal S. Kenath, Piyali Maity, Yogesh Kumar, Hemant Kumar, Vinod K. Gangwar, Sandip Chaterjee, Satyabrata Jit, Anup K. Ghosh &  Bhola N. Pal.
12. (2017) Liquid Phase Exfoliated Graphene for Electronic Applications. Sheena S Sukumaran, K. B. Jinesh & K. G. Gopchandran.
13. (2016) HRP modified pulse laser ablated ZnO nanostructure for H2O2 sensing. Amit Srivastava & Naresh Kumar.
14. (2016) Gate controllable resistive random access memory devices using reduced graphene oxide. Preetam Hazra, A. N. Resmi & K. B. Jinesh.
15. (2015) Structural, Optical and Electrical Properties of Synthesized ZnO Nanoparticles. Rakesh Saroha & A. K. Panwar.
16. (2015) Controlled Synthesis of Nitrogen-Doped Graphene from a Heteroatom Polymer and Its Mechanism of Formation. Titash Mondal, Anil K. Bhowmick & Ramanan Krishnamoorti.
17. (2014) Stress Generation and Tailoring of Electronic Properties of Expanded Graphite by Click Chemistry. Titash Mondal, Anil K. Bhowmick & Ramanan Krishnamoorti.
18. (2014) Butyl lithium assisted direct grafting of polyoligomeric silsesquioxane onto graphene. Titash Mondal, Anil K. Bhowmick & Ramanan Krishnamoorti.
19. (2013) Fabrication of single and coupled metallic nanocantilevers and their nanomechanical response at resonance. Amit Banerjee & S. S. Banerjee.
20. (2012) Temperature-dependent morphological evolution of clustered gold surface. Mukesh Kumar & Govind,
21. (2011) Formation of Gallium-induced nanostructures on single crystal HOPG surface. Jaspreet Sandhu, Amit Kumar Singh Chauhan & Govind

News Articles

• This article Nano-revelations by the Indigenous nanoREV 4.0 Air STM (pdf) featured in the April 2011 Issue of Nanotech Insights newsletter by The Center for Knowledge Management of Nanoscience & Technology.

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