Communication Networks R&D- Student Position

 

Engineering or computer science student with knowledge at communication layers, an advantage for advanced diplomas

Undergraduates' students with at least 1.5 more studying years left

RT Embedded – Student Position

Student in Computer Science / Software Engineering / Computer Engineering / Electrical Engineering

Candidate should have at least 3 semesters left

Previous experience in software development – advantage

System Engineer - Python Developer

  • BSc in Physics/Electrical Engineering (or related field) from a recognized university.
  • At least one year of experience writing production-level code.

Physics Algorithm Expert

  • MSc or PhD in Physics / Electrical Engineering / Material Science or related fields – Mandatory.
  • Experience in experiment modelling and analysis.
  • Proficiency in Python – at least 2 years' experience (in industry or academia).

System Physicist

  • MSc in Physics, Electronics and Computer Engineering, or Biomedical Engineering student or Ph.D. in Mechanical Engineering with 1-2 years remaining. 
  • MATLAB/Python hands-on knowledge
  • Please attach the full grade sheet

יום זרקור של חברת Nvidia

02 באפריל 2025, 11:00 - 14:00 
הפקולטה להנדסה  

 

 

 

 

 

יום זרקור של חברת Texas Instruments

04 ביוני 2025, 11:00 - 14:00 
הפקולטה להנדסה  

 

 

 

 

 

EE Seminar: Performance Bounds On the Estimation of Low-Rank Probability Mass Function Tensors

05 בפברואר 2025, 15:00 
אולם 011, בניין כיתות חשמל  
EE Seminar: Performance Bounds On the Estimation of Low-Rank Probability Mass Function Tensors

 

השתתפות בסמינר תיתן קרדיט שמיעה לתלמידי תואר שני ושלישי = עפ"י רישום שם מלא + מספר ת.ז. בדף הנוכחות שיועבר באולם במהלך הסמינר

 

 

 

 

סמינר מחלקתי של ערן במני- זיהוי כוונות בשיתוף פעולה טבעי בין אדם לבין רובוט

17 בפברואר 2025, 14:00 - 15:00 
 
סמינר מחלקתי של ערן במני- זיהוי כוונות בשיתוף פעולה טבעי בין אדם לבין רובוט

Intent Recognition in Natural Human-Robot Collaboration

 

Monday February 17th 2025 at 14:00

Wolfson Building of Mechanical Engineering, Room 206

Abstract:

Human-robot collaboration relies on the ability of robots to intuitively recognize and respond to natural human gestures, which are non-verbal communication methods conveying intent and directives. These gestures, such as pointing or holding, play a crucial role in enabling seamless interaction between humans and robots in shared tasks. Challenges in this domain include variability in environments, differences among users, and the need for robust systems that can operate under dynamic conditions. Addressing these challenges is essential for advancing human-robot collaboration across multiple fields, including healthcare, search and rescue, and industrial automation.

In this research, we proposed innovative frameworks to address key challenges in intent recognition. First, we developed a wearable Force-Myography (FMG) based system for recognizing objects held by users, utilizing the novel Flip-U-Net architecture for robust performance across diverse conditions and multi-user environments. Second, we introduced a framework for robust recognition and estimation of pointing gestures using a single web camera, leveraging a lightweight segmentation-based model to accurately detect gestures and estimate their position and direction. Third, we presented the Ultra-Range Gesture Recognition (URGR) framework, combining a High-Quality Network (HQ-Net) for super-resolution with a Graph-Vision Transformer (GViT) for gesture classification, enabling recognition at distances up to 28 meters. Fourth, we developed the Diffusion in Ultra-Range (DUR) framework to generate high-fidelity synthetic datasets for training gesture recognition models, addressing data scarcity and enhancing performance across diverse scenarios. Finally, we introduced a robust dynamic gesture recognition framework based on the SlowFast-Transformer model, achieving high accuracy in challenging conditions, such as low light and occlusions, further advancing the applicability of gesture recognition systems for real-world applications.

 

Bio:

Eran Bamani Beeri is a PhD candidate at the School of Mechanical Engineering, Tel Aviv University, under the supervision of Dr. Avishai Sintov. His research focuses on deep learning, computer vision, and human-robot interaction, aiming to develop scalable frameworks for natural and intuitive human-robot collab oration. Eran holds a B.Sc. and M.Sc. in Electronic Engineering, where he specialized in image and signal processing. Eran has extensive experience in research and development in the fields of medical image processing, trajectory estimation, and gesture recognition. His work has been published in leading journals. Eran is expected to graduate in March 2025 and will begin as a post doctoral associate at MIT’s Lab 77, working on rehabilitation robotics within the broader field of human-robot collaboration.

BME Seminar- Generative AI for Molecules: Semi-Equivariant Flows, Sketchy Diffusion, and Quantum Ground States Abstract-Daniel Fridman

06 באפריל 2025, 14:00 - 15:00 
אוניברסיטת תל אביב  
BME Seminar- Generative AI for Molecules: Semi-Equivariant Flows, Sketchy Diffusion, and Quantum Ground States Abstract-Daniel Fridman

Abstract:
Generative AI has made tremendous strides over the last few years in a wide variety of fields, including text, images, audio, and video. In this talk, we discuss the use of Generative AI techniques in the realm of molecules, emphasizing the incorporation of invariances to transformation groups, and covering three applications. In the first, we show an approach to the problem of generating molecules which will bind to a particular receptor molecule, a problem with strong applications in drug design. We design specialized normalizing flows which respect the physical invariances inherent in the problem, through the use of semi-equivariant networks. In the second application, we show how to adapt diffusion models to deal with this same problem. In particular, we address the size disparity between the receptor and the generated molecule, which can be problematic for learning as the receptor can overwhelm the training; we do so by creating a small sketch of the receptor, dubbed a “virtual receptor”. In the final scenario, we address a fundamental problem with applications in chemistry, biochemistry and materials science: computing the quantum ground state of a molecule. We demonstrate an efficient method of solving the Electronic Schrodinger Equation by using a carefully designed antisymmetric normalizing flow to construct the wavefunction ansatz.

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