Inon SharonyTAU

@ Tel Aviv University

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Contact


e-mail: InonShar (at) TAU (dot ) ac (dot) IL (click for QR code)
Web site: QR code
Address: School of Chemistry, Raymond and Beverly Sackler Faculty of Exact Sciences,
Tel Aviv University, 60 Levanon Street, Ramat Aviv 69978, Israel
Office: Ornstein 411A
Phone: +972-3-640-7634


Introduction


My name is Inon Sharony, and I am a doctoral student in Professor Avraham Nitzan's group at TAU.
I graduated my B.Sc. studies in 2007, majoring in Chemistry with Physics as a minor subject.
My particular area of interest within our group is heat conduction through molecular wires.

CV:



Molecular Electronics


Click here for an animation of a Single Molecule of Thioethane Adsorbed on a Single Atom of Gold (tethered to its place) relaxing to zero Kelvin from room temperature

Metal-Molecule-Metal junction (Quantum transport at the molecular scale quantrans.org)

This is a schematic of a molecular junction of the type our group deals with. We study transport through the molecular bridge between two contacts. The transport may be of an electrical current or of heat, for example. In the instance shown above, the molecular junction operates as an electronic switch (M. Reed, et al., Science 1999).

Cartoon of a Hydrogen molecule junction (Steven G. Louie, Molecular Foundry, Lawrence Berkeley National Laboratory
Cartoon of a simulated Metal-Molecule-Metal (MMM) junction of the simplest kind -- in this case a Hydrogen molecule.

Slide 4 from Cuevas's Molecular Electronics lecture
Professor J. C. Cuevas at the Cond. Mat. Theo. Phys. department of the Universidad Autonoma de Madrid has uploaded a presentation he gave in which I found this slide depicting the functional character of some molecular electronics. (The original isn't mine. Please excuse the typographical error.)

Motivation


Rolf Landauer, "Irreversibility and Heat Generation in the Computing Process," IBM Journal of Research & Developement, vol. 5, pp. 183-191, 1961.

Gordon Moore, "Cramming more components onto integrated circuits," Electronics, Volume 38, Number 8, April 19, 1965.

Moore's Law
Victor V. Zhirnov, Ralph K. Cavin, III, James A. Hutchby, and George I. Bourianoff, "Limits to Binary Logic Switch Scaling -- A Gedanken Model," Proceedings of the IEEE, Vol. 91, No. 11, November 2003.

Arieh Aviram & Mark A. Ratner, "Molecular Rectifiers," Chemical Physics Letters, vol. 29, no. 2, pp. 277-283, November 15, 1974.


Experiments


Experimentalists

Scanning electron micrograph of an electromigration-fabricated gold junction, with a nanometre-scale gap, used by Stephanie Getty and co-workers at the University of Maryland, USA, to study transport through single molecules.
Scanning electron micrograph of an electromigration-fabricated gold junction, with a nanometre-scale gap, used by Stephanie Getty and co-workers at the University of Maryland, USA, to study transport through single molecules.
"Molecular electronics: Back under control", Mark A. Reed, Nature Materials 3, 286 - 287 (2004).

image of the fabrication of a gold nanojuction by creating a gap ( Khondaker Group, University of Central Florida http://physics.ucf.edu/~khondaker/research.htm)
A neat way of creating a nano- junction by bridging the gap between the electrodes, and then pulling them apart, thereby creating the nanoscale bridge.

STM image at 63 K of trans-BCTBPP wires formed on the Au(111) surface (imaged area 70 x 70 nm
STM image at 63 K of trans-BCTBPP wires formed on the Au(111) surface (imaged area 70 x 70 nm).
"Selective assembly on a surface of supramolecular aggregates with controlled size and shape", Yokoyama et. al., Nature 413, 619-621 (2001).

Teaching


In spring semesters I was the lead lab instructor for the Computational Chemistry Laboratory, under Associate Professor Ephraim Eliav.
My responsibilities included delivering frontal lectures to the entire class, leading interactive teaching sessions, instructing lab groups (as well as grading their preparatory exercises and final reports), personally evaluating students within my lab group, developing lab exercises, maintaining the lab manual, and composing and grading quiz questions.
Since I began instructing in the lab, we have had multiple requests by research group heads and their students from other universities to have students enroll in our course, as they have found it uniquely adapted to their research needs.
Additionally, student demand had outrun lab accommodations three years in a row.
During the time in which I have been an instructor in the Computational Chemistry Lab, I've learned a great deal, both with regard to the management and leadership of an instruction team, and with regard to the course material itself.
I've tried to put an emphasis on the specific research interests of the students, and on how the Computational Chemistry Lab can give them the necessary tools for these applications.

In fall semesters I was the senior recitation master for the course Thermodynamics, under Professor Haim Diamant.
As such, my responsibilities included delivering weekly two-hour frontal lectures, personally tutoring students, synchronizing the recitations with the Professor's lectures, maintaining the existing TA guide and producing new modules, and assisting the Professor with the preparation and administration of the final exam.
The relatively long time during which I've held this position has afforded me the opportunity to acquire and hone my teaching skills, as well as improving my fundamental understanding of the course material and related topics.

In the spring semester I am the instrutor of the Molecular Dynamics computer experiment at the Advanced Laboratory in Physical Chemistry.
I recieved the experiment in a decrepid condition -- it was not revamped since its inception in 2001. Building on my past teaching experience, I gathered all the relevant material I could find and consolidated a new laboratory manual. The experiment was bolstered by adding new modules which give the students their first experience in applying such varied methodologies as mathematical modeling, random processes, probability & statistics, numerical methods (e.g. for differentiation & integration), statistical mechanics, and computational chemistry.

Other


Shear (tangent) and Pressre (logitudinal) waves in earthquakes
Manifestations of the different parts of the stress tensor in earthquakes.

mass-energy equivalence in accelerators
Physicists are very clever people. When they want to find out what something is made of, they take two of the thing and crash them together, much as a toddler would two toy trucks. When pieces fly off, they look at what originally consisted the particles they collided. The Mass-Energy equivalence shows up in particle accelerators much as this drawing depicts -- the kinetic energy that the original particles were endowed allows for particles heavier than the originals to be created, while the products carry less momentum.

H-R Diagram

A wonderful Hetzsprung-Russell diagram which depicts the relation between mass, luminosity, and temperature of different known populations of stars.

Sherlock Holmes (Edinburgh)

A statue erected in honor of Sir Arthur Conan Doyle in Edinburgh, featuring the quintessential man of pure reason.


Magellan's view of religion


Satellite image of Israel (taken January 2003)

אני מאמין / שאול טשרניחובסקי (1894)

שַׂחֲקִי, שַׂחֲקִי עַל הַחֲלוֹמוֹת,
זוּ אֲנִי הַחוֹלֵם שָׂח.
שַׂחֲקִי כִּי בָאָדָם אַאֲמִין,
כִּי עוֹדֶנִּי מַאֲמִין בָּךְ.

כִּי עוֹד נַפְשִׁי דְרוֹר שׁוֹאֶפֶת,
לֹא מְכַרְתִּיהָ לְעֵגֶל-פָּז,
כִּי עוֹד אַאֲמִין גַּם בָּאָדָם,
גַּם בְּרוּחוֹ, רוּחַ עָז.

רוּחוֹ יַשְׁלִיךְ כַּבְלֵי-הֶבֶל,
יְרוֹמְמֶנּוּ בָּמֳתֵי-עָל;
לֹא בָּרָעָב יָמוּת עוֹבֵד,
דְּרוֹר – לַנֶּפֶשׁ, פַּת – לַדַּל.

שַׂחֲקִי כִּי גַּם בְּרֵעוּת אַאֲמִין,
אַאֲמִין כִּי עוֹד אֶמְצָא לֵב,
לֵב – תִּקְווֹתַי גַּם תִּקְווֹתָיו,
יָחוּשׁ אֹשֶׁר, יָבִין כְּאֵב.

אַאֲמִינָה גַּם בֶּעָתִיד,
אַף אִם יִרְחַק זֶה הַיוֹם,
אַךְ בּוֹא יָבוֹא – יִשְּׂאוּ שָׁלוֹם
אָז וּבְרָכָה לְאֹם מִלְּאֹם.

יָשׁוּב יִפְרַח אָז גַּם עַמִּי,
וּבָאָרֶץ יָקוּם דּוֹר,
בַּרְזֶל-כְּבָלָיו יוּסַר מֶנּוּ,
עַיִן-בְּעַיִן יִרְאֶה אוֹר.

יִחְיֶה, יֶאֱהַב, יִפְעַל, יַעַשׂ,
דּוֹר בָּאָרֶץ אָמְנָם חָי,
לֹא בֶּעָתִיד, בַּשָּׁמַיִם –
חַיֵּי-רוּחַ לוֹ אֵין דָּי.

אָז שִׁיר חָדָשׁ יָשִׁיר מְשׁוֹרֵר,
לְיֹפִי וְנִשְׂגָּב לִבּוֹ עֵר;
לוֹ, לַצָּעִיר, מֵעַל קִבְרִי
פְּרָחִים יִלְקְטוּ לַזֵּר.


The Origin of the Theses

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