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ההאקתון הראשון לניידות עירונית יוצא לדרך

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17 במאי 2023, 11:00 
הספריה למדעי החברה, הניהול והחינוך ע"ש ברנרד מוס, אוניברסיטת תל אביב  
ההאקתון הראשון לניידות עירונית יוצא לדרך

    17-18.05.2023    

מרכז היזמות, "מרכז העיר" ומכון שלמה שמלצר לתחבורה חכמה באוניברסיטת תל אביב 
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hackTAU מדרכה בטוחה, להמציא את פתרונות העתיד!!!​ 

למידע נוסף

סמינר תואר שני - :  By Ariel Cohen  

סמינר זה יחשב כסמינר שמיעה לתלמידי תואר שני

18 במאי 2023, 15:00 
Physical Electronics Zoom Seminar  
 סמינר תואר שני - :  By Ariel Cohen  

 

You Are Invited To Attend A Guest  Lecture On Thursday, May 18, 2023 at 15:00

 

Room 011, Kitot Building

 By Ariel Cohen  

 

Title: Ultra-Fast IO and Converters Chip Design - Toward a Quarter Tera Bit-Rate Transceiver for Long-Reach Wireline Channels

:Seminar Abstract

The demand for faster, smaller, low-power and high-speed wired communication interfaces has been growing rapidly to satisfy the ever-increasing needs of datacenters and their diverse workloads. Faster electrical interfaces continue to be developed to enable this growth in datacenter bandwidth which doubles every 3-4 years. Using an ultra-fast Analog to Digital Converter (ADC) and a Digital to Analog Converter (DAC) as a part of the receiver and the transmitter, respectively, paves the way to transfer significant equalization, adaptation, and signal-processing mechanisms into the digital domain. In this lecture the motivation, the challenges, the architecture, and the circuits of such a 224 Gb/s transceiver will be presented with the focus on the receive path. The transceiver, designed in 5nm TSMC process, supports long-reach channels of 38dB attenuation at Nyquist frequency with better than 6e-7 BER. The lecture will be concluded by research opportunities of such technologies.

 

Index Terms—Transceiver, SERDES, Time interleaved ADC, DAC, SAR, PAM4, 224 Gb/s, digital FFE, digital DFE

 

Ariel Cohen Bio

Ariel Cohen received his B.Sc. degree in in electrical-engineering from Ben-Gurion University, Israel, in 1997, and his M.Ss. and Ph.D. degrees in Neuroscience from the Hebrew-University of Jerusalem, Israel, in 2003 and 2008, respectively.
Ariel is a Sr. Principal Engineer with Mixed-Signal IP group, Intel, and leads the technologies for 112/224 Gb/s ADC and DAC based SERDES since 2015. From 2008 to 2015, Ariel led the development of integrated 10 Gb/s Ethernet PHY, high-accuracy thermal sensors, sigma-delta ADCs and DACs teams.  From 2005 to 2008, he took part in establishing the bioelectronics laboratory and developed ultra-sensitive silicone-based biosensors for protein detection. Since 2012, Ariel has been an external lecturer within the Department of Electrical-Engineering and Applied Physics, The Hebrew University, Israel, teaching the VLSI courses.

His research interests include SERDES, ADCs, DACs, thermal sensors and biosensors.

Ariel Cohen was the recipient of the 2016, 2021 Intel Achievement Awards.

 

 

 

 

-סמינר זה יחשב כסמינר שמיעה לתלמידי תואר שני-

 

סמינר LMI -מרכז אור וחומר מארח את Dr. Tal Schwartz

17 במאי 2023, 13:00 
הפקולטה להנדסה אוניברסיטת תל אביב, בנין כיתות ,אולם 011  
 סמינר  LMI -מרכז אור וחומר מארח את Dr. Tal Schwartz

LMI Seminar:

Molecules in a Quantum-Optical Flask

Dr. Tal Schwartz

Physical Chemistry Department, TAU

Wednesday  May  17th,  2023

13:00-14:00

Light refreshments and drinks will be served at 12:30

Auditorium 011, Engineering Classroom Building,  Faculty of Engineering, Tel-Aviv University

 

Abstract: When confined to small dimensions, the interaction between light and matter can be enhanced up to the point where it overcomes all the incoherent, dissipative processes. In this "strong coupling" regime the photons and the material start to behave as a single entity, having its own quantum states and energy levels.

In this talk I will present the fundamental physics of strong coupling in hybrid photonic-molecular structures, and how such cavity-QED effects can be employed for controlling material properties and molecular processes. This includes, for example, photochemical reactions [1], the enhancement of transport in organic semiconductors [2-3] and potentially tailoring the mesoscopic properties of organic crystals, by hybridizing intermolecular vibrations with electromagnetic THz fields [4-5]. Finally, I will discuss our recent discovery [6], where we showed that the finite velocity of light and retardation effects must be taken into account in cavity-QED physics.

[1] J. A. Hutchison, T. Schwartz, C. Genet, E. Devaux, and T. W. Ebbesen, "Modifying Chemical Landscapes   by Coupling to Vacuum Fields," Angew. Chemie Int. Ed. 51, 1592 (2012).

[2] G. G. Rozenman, K. Akulov, A. Golombek, and T. Schwartz, "Long-Range Transport of Organic Exciton-Polaritons Revealed by Ultrafast Microscopy," ACS Photonics 5, 105 (2018).

[3] M. Balasubrahmaniyam, A. Simkovich, A. Golombek, G. Ankonina, and T. Schwartz, "From enhanced diffusion to ultrafast ballistic motion of hybrid light–matter excitations," Nat. Mater. 22, 338 (2023).

[4] R. Damari, O. Weinberg, D. Krotkov, N. Demina, K. Akulov, A. Golombek, T. Schwartz, and S. Fleischer, "Strong coupling of collective intermolecular vibrations in organic materials at terahertz frequencies," Nat. Commun. 10, 3248 (2019).

[5] M. Kaeek, R. Damari, M. Roth, S. Fleischer, and T. Schwartz, "Strong Coupling in a Self-Coupled Terahertz Photonic Crystal," ACS Photonics 8, 1881 (2021).

[6] M. Balasubrahmaniyam, C. Genet, and T. Schwartz, “Coupling and decoupling of polaritonic states in multimode cavities”. Phys. Rev. B 103, 1 (2021).

 

 

 

 

קולוקוויום: Colloquium: It's Just a Game: Designing Distributed Multiagent Protocols by Ilai Bistritz

14 במאי 2023, 15:00 
011 בנין כיתות  
קולוקוויום: Colloquium: It's Just a Game: Designing Distributed Multiagent Protocols by Ilai Bistritz

 

Electrical Engineering Colloquium 

 

 

Speaker: Dr. Ilai Bistritz

Title: It's Just a Game: Designing Distributed Multiagent Protocols

 

Abstract 

Automation relegates many decision-making processes from humans to machines. In recent years, automation is powered by machine learning, which enables trained machines to achieve expert-level performance in some tasks. Many of these tasks require humans to interact (e.g., driving, delivery, construction), so automating them will result in interacting machines where the decisions of one machine affect others. As game theory predicts, this interaction can lead to a globally inefficient equilibrium. However, machines follow programmatic objectives and protocols that, unlike humans, are not limited by selfish interests, but by information and resources. This modern paradigm calls for new tools to design efficient multiagent protocols.
 
We will first highlight the major design challenges and then discuss the distributed energy allocation problem as a concrete example. We formulate this problem as a game and study the performance of best-response dynamics (BRD) as a distributed algorithm that the sources run to allocate energy to consumers. We show that  "bad networks" exist where BRD suffers from poor performance. However, empirically, these bad networks are rare. Drawing inspiration from this empirical finding, we analyze BRD as a random process in a random game. We show that, with high probability, BRD is asymptotically optimal (in the size of the network). Applying our “random games approach” broadly may reveal that BRD is efficient more often than the worst-case overly pessimistic approach would suggest. This is an encouraging finding since BRD requires little to no coordination between the agents.

 

Light refreshments will be served before the lecture

This colloquium is not counted toward seminar credit.

ההרצאה לא מזכה בקרדיט שמיעת סמינרים.

סמינר מחלקה של רוני גולדשמיט פיתוח חיישני זרימה במחירים סבירים לאתגר האקלים

15 במאי 2023, 14:00 
פקולטה להנדסה  
0
סמינר מחלקה של רוני גולדשמיט פיתוח חיישני זרימה במחירים סבירים לאתגר האקלים

 

School of Mechanical Engineering Seminar
Monday May 15.5.2023 at 14:00

Wolfson Building of Mechanical Engineering, Room 206

 

Developing affordable flow sensors for the climate challenge

 

 

Dr.  Roni goldshmid

Dr. Roni Goldshmid is a postdoctoral scholar in the Graduate Aerospace Laboratories at the California Institute of Technology

 

Accurate mapping of the wind can enable more efficient renewable energy technologies as well as more accurate monitoring and modeling of weather and climate. Current ubiquitous wind sensors provide pointwise records but scaling them to full field requires installation and maintenance of a large number of sensors, which can be cost prohibitive.  Therefore, I will demonstrate an affordable alternative in which quantitative estimates of wind speed and direction are inferred based on visual observations of associated flow-structure interactions such as swaying trees and flapping flags, named visual anemometry (VA). To explore generalizability of VA, i.e., the procedure that does not require calibration measurements or a priori collection of training data, I conducted a laboratory study of VA in an open circuit wind tunnel using eight species of vegetation and modeled the relationship between the vegetation displacement fields and wind velocity.  

 

Bio: 

Dr. Roni Goldshmid is a postdoctoral scholar in the Graduate Aerospace Laboratories at the California Institute of Technology. Roni received her B.S. at the University of California, Berkeley, and her M.S. and Ph.D. in the department of Civil and Environmental Engineering at the Technion – Israel Institute of Technology. Roni was named a rising star in mechanical engineering by Stanford University (2022), has authored two successful grants (NSF 2019 and ISF 2018) and has received the Grinshpen prize for excellent research in environmental engineering and air quality (2016). Her research interests and expertise include experimental fluid dynamics, where she focuses on fundamental and applied problems such as fluid-structure interactions, boundary layer flows, and interpretation of imperfect empirical data. 

https://tau-ac-il.zoom.us/j/86497933118

יום פרויקטים של בית הספר להנדסת חשמל בחסות חברת INTEL

27 ביוני 2023, 9:00 - 17:00 
 
Save the date

יום פרוייקטים במחלקה לחשמל- שמרו את התאריך ה27.06

הנכם.ן מוזמנים.ות ליום פרוייקטים בחשמל שיערך ביום שלישי ה27.06.23 ויתקיים בפקולטה להנדסה בבניין כיתות חשמל. 

 

נשמח לראותכם בין אורחינו,

 

ארגון עמיתי התעשייה והמחלקה לחשמל מהפקולטה להנדסה. 

 

לינק להזמנה

 

סמינר מחלקה של צחי כהן -לוקליזציה של הד בלתי משתנה באמצעות עטלפים (אוזן חיצונית)

26 ביוני 2023, 14:00 - 15:00 
פקולטה להנדסה  
0
סמינר מחלקה של צחי כהן - לוקליזציה של הד בלתי משתנה באמצעות עטלפים (אוזן חיצונית)

 

 

 

 

School of Mechanical Engineering Seminar
Monday, June 26, 2023, at 14:00
Wolfson Building of Mechanical Engineering, Room 206

 

 

Invariant Echo-Localization Using Bat Pinnae (External Ear)

 

Zahi Cohen

M.Sc. Student of Prof. Yossi Yovel

Sound localization is arguably one of the most important functions of the vertebrate auditory system. Animals must properly localize the sound of a predator, a prey or a potential mate. The mammalian external ear (the pinnae) has evolved especially to assist sound localization. The pinnae is thought to generate spectral cues that enable assigning a specific sound spectrum to a specific direction in space. Echolocating bats must constantly localize the direction of acoustic targets – the echoes reflected from different objects. Bats have a uniquely difficult task because echoes are naturally filtered (due to target shape and distance) independently of target direction. To examine if and how the bat pinna allows solving this ambiguity, we used a bio-mimetic system which included a 3D model of the bat pinna and which allowed us to emit bat-like echolocation signals and record the echoes. In our study, we focused on echolocating bats and showed how crucial external ears are for echo-localization. The setup model that included pinnae performed far better than the no-pinnae model allowing accurate sound localization independently of object shape and distance. The pinnae also improved the uniformity of the performance – allowing better sound localization for any azimuth angle. Using a simple computational and physical model, we managed to quantify the advantage of evolving external ears. Unlike most previous studies, we generated actual echoes from various shapes and estimated our ability to localize them based on the reflected spectra, comparing a setup that included a 3D model of the external ear to one that did not. We developed a mathematical framework to estimate the azimuth of the sound source based on its spectrum, and we specifically examine how pinnae affect localization accuracy for targets of different shapes and at different distances.

Join Zoom Meeting https://tau-ac-il.zoom.us/j/86497933118

 

 

סמינר מחלקה של ליאור מורדוך

28 ביוני 2023, 14:00 - 15:00 
פקולטה להנדסה  
0
סמינר מחלקה של ליאור מורדוך

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