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Research

People

Assistant Professor
Photo of Alon Grinberg Dana
+972-48292117
e-mail
Closed-loop software and hardware platforms driving chemical discovery through automated hypothesis generation, refinement, validation, and revision, resulting in predictive chemical kinetic models.
Professor
Photo of Ariel Orda
e-mail
Network routing, survivability, QoS provisioning, wireless networks, the application of game theory to computer and power networks, blokchains, the application of machine learning to network protocols.
Professor
Photo of Assaf Schuster
+972-48294330
e-mail
Distributed and Scalable Deep Learning; Deep Learning for Personal Medicine; Randomness in Deep Learning; Analytics of Rapid Data Streams; Complex Event Processing (CEP); Internet of Things and Smart Systems; Privacy Preserving; Cyber Security; Cloud Management
Associate Professor
Photo of Aviv Tamar
e-mail
My research focuses on AI and machine learning, with an emphasis on robotics applications. My long term goal is to bring robots into human-centered domains such as homes and hospitals. Towards this goal, some fundamental questions need to be solved, such as how can machines learn models of their environments that are useful for performing tasks, and how to learn behavior from interaction in an interpretable and safe manner. Most of my work falls under the framework of reinforcement learning, and its connections to representation learning and planning.
Associate Professor
Photo of Barak Fishbain
+972-48293177
e-mail
Enviromatics; machine learning methods and mathematical for natural complex environments; hydro-informatics; atmospheric-informatics; precise agriculture; structural health; smart infrastructure systems and connected transportation.
Associate Professor
Photo of Dan Liberzon
e-mail
"Environmental Fluid dynamics Turbulent atmospheric flows Water waves, and wind-waves interactions Acoustics"
Professor
Photo of Dov Dori
+972-48294409
e-mail
Conceptual Modeling, Systems Eng. and Modeling, Systems Architecture, Enterprise Systems Modeling; Object-Process Methodology; Ontologies; Software Development Methodologies, Semantic Web; Systems Biology, Robotics.
Assistant Professor
Photo of Erez Karpas
+972-48292034
e-mail
Automated Planning, Robotics, Artificial Intelligence.
Assistant Professor
Photo of Gala Yadgar
+972-778871321
e-mail
Caching, Content Distribution, Optimizations for Flash Based Storage, Erasure Coding, Deduplication, Workload Characterization and Improved Analysis Tools.
Professor
Photo of Hossam Haick
+972-48293087
e-mail
Nano-array devices for screening, diagnosis and monitoring of disease, nanomaterial-based chemical (flexible) sensors, electronic skin, breath analysis, volatile biomarkers, and cell-to-cell communication.
Assistant Professor
Photo of Ido Kaminer
+972-48292051
e-mail
Implications of quantum mechanics on future technology; Algorithms to automate research in fundamental science and in mathematics; Fundamentals of light-matter interactions; Probing materials with ultrafast electrons and photons.
Assistant Professor
Photo of Jonathan Natanian
+972-778871201
e-mail
Environmental quality driven urban design, Generative urban design, Zero energy buildings and districts, Performance-based design using digital tools, Environmental workspace design, Passive low carbon design strategies
Assistant Professor
Photo of Kfir Yehuda Levy
+972-48294749
e-mail
Machine Learning and Optimization.
Associate Professor
Photo of Maytal Caspary Toroker
+972-48294298
e-mail
Machine learning for material design.
Associate Professor
Photo of Nir Ailon
+972-48294842
e-mail
Machine Learning and Statistics, Combinatorial Optimization and Approximation Algorithms, Algorithmic Dimension Reduction and Applications, Complexity.
Assistant Professor
Photo of Or Aleksandrowicz
+9724-8294041
e-mail
Building physics; Building performance simulation; Bioclimatic design; Urban microclimate; Building technology; History of architecture and architectural technology; Urban history; Digital Humanities.
Assistant Professor
Photo of Renana Gershoni-Poranne
e-mail
Inverse molecular design, chemical space exploration, physical organic chemistry.
Associate Professor
Photo of Reshef Meir
+972-48294434
e-mail
I am interested in understanding and mitigating the negative effects of strategic behavior. Mainly by people interacting via large systems, e.g. congestion in networks or biased group decisions.
Associate Professor
Photo of Ronen Talmon
+972-48294750
e-mail
Geometry-based Data Analysis & Modeling; Signal Processing; Applied Harmonic Analysis; Diffusion Geometry; Biomedical Signal Processing; Computational Neuroscience.
Assistant Professor
Photo of Sarah Keren
e-mail
Multi-agent AI, multi-robot systems, collaborative AI, multi-agent environment design, integrated task and motion planning for robotics, and multi-agent reinforcement learning.
Associate Professor
Photo of Shahar Kvatinsky
+972-778871502
e-mail
Performing logic using memory cells to build the memristive memory processing unit (mMPU), mixed-signal circuits, RF circuits, neuromorphic computing, cytomorphic systems, deep learning accelerators, internet-of-things, and hardware security.
Professor
Photo of Shie Mannor
+972-48293284
e-mail
AI and machine learning, reinforcement learning and planning; learning, optimization and control under uncertainty, Multi-agent systems, Optimization of large scale problems, application of machine learning to a variety of problems: power grids, communication networks, etc.
Assistant Professor
Photo of Shimrit Shtern
972-48294437
e-mail
Robust and adaptive optimization; Data-driven optimization; Algorithms for nonconvex and mixed-integer optimization; Optimization applications in: energy, inventory systems, estimation and control, statistics and healthcare.
Distinguished Professor
Photo of Shlomo Shamai Shitz
e-mail
Network and multi-user information theory, Modern Communication networks (Cloud and Fog Radio Networks), Information and Signal Processing (Information-Estimation), Information bottleneck problems in communications and learning.
Associate Professor
Photo of Shoham Sabach
+972-48294442
e-mail
Continuous Optimization: Theory and Algorithms, development and analysis of Optimization Methods for large-scale optimization problems, Applications of Optimization Methods in Machine/Deep Learning.
Professor
Photo of Steven Frankel
e-mail
The CFDLAB focuses on the development, implementation and application of high-fidelity numerical methods for solving problems in aerodynamic, combustion, energy, propulsion, and multiphase turbulent flows. We use high-performance computing including multi-GPU platforms to parallelize our simulations and improve performance. We also study algorithms for quantum computers. In all cases, AI/machine learning techniques are considered to implement flow control strategies, better understand and improve predictive accuracy of turbulent flows, and finally to improve performance of quantum algorithms.
Professor Emeritus
Photo of Uri Weiser
+ 972-778871507
e-mail
Research in Advanced Computer architecture to achieve high Hardware utilization. Leverage the Machine Learning unique characteristics to redesign energy efficient Deep Neural Networks.
Associate Professor
Photo of Vadim Indelman
+972-48293815
e-mail
The intersection of probabilistic perception and inference, learning, and planning under uncertainty, both for single and distributed multi-agent autonomous systems.
Professor
Photo of Yair Ein-Eli
e-mail
We are working on AI/ML in battery materials research.
Associate Professor
Photo of Yasha J. Grobman
+972-48294001
e-mail
Design computation, computer aided design and fabrication.

Projects

Application-Tailored Optimal Fuel Design
Design of an AI tool able to attain a fuel mixture composition that possesses specific desirable combustion characteristics. Given a constrained chemical search space and a target function (e.g., ignition delay time), this tool will predict which fuel composition is optimal for the task. This tool will intelligently design a wid... more

Application-Tailored Optimal Fuel Design

Design of an AI tool able to attain a fuel mixture composition that possesses specific desirable combustion characteristics. Given a constrained chemical search space and a target function (e.g., ignition delay time), this tool will predict which fuel composition is optimal for the task. This tool will intelligently design a wide range of fuel systems efficiently, attaining experimentally-validated results, while at the same time reducing the amount of required experiments and resources.

Intelligent Design of High-T Fuel Cell Membranes
This project focuses on attaining robust proton-exchange membranes (PEMs) for high-temperature fuel cells. The key challenge with today’s PEMs at high temperature oxidative environments is that they degrade too quickly, resulting in an unacceptably low operation time of the overall device. We generate detailed chemical kinetic... more

Intelligent Design of High-T Fuel Cell Membranes

This project focuses on attaining robust proton-exchange membranes (PEMs) for high-temperature fuel cells. The key challenge with today’s PEMs at high temperature oxidative environments is that they degrade too quickly, resulting in an unacceptably low operation time of the overall device. We generate detailed chemical kinetic models for the degradation of these materials, and use neural networks to predict new polymer structures with low degradation rates at these extreme operation conditions.

Contract Design for Energy Demand Response
Power companies such as Southern California Edison (SCE) uses Demand Response (DR) contracts to incentivize consumers to reduce their power consumption during periods when demand forecast exceeds supply. We design mechanisms that take into consideration consumers' heterogeneity in consumption profile and reliability, and increas... more

Contract Design for Energy Demand Response

Power companies such as Southern California Edison (SCE) uses Demand Response (DR) contracts to incentivize consumers to reduce their power consumption during periods when demand forecast exceeds supply. We design mechanisms that take into consideration consumers’ heterogeneity in consumption profile and reliability, and increase participation at a lower cost.

Energy performance in heterogeneous built environments
This research aims at exploring the impacts of mixed-use and mixed-typology configurations on energy performance (i.e., supply, demand, and the balance between them) in the Israeli context. To do that - we are adopting a cross-use, cross-scale (from a room to a district), and a cross-climatic analytical approach (different clima... more

Energy performance in heterogeneous built environments

This research aims at exploring the impacts of mixed-use and mixed-typology configurations on energy performance (i.e., supply, demand, and the balance between them) in the Israeli context. To do that – we are adopting a cross-use, cross-scale (from a room to a district), and a cross-climatic analytical approach (different climate zones and future climate), which is applied here on several local test cases. The methodology includes an optimization module that offers a set of spatial and usage combinations which supply a favorable energy starting point in the heterogeneous design of buildings and districts.

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A holistic generative cross-climatic method for solar-driven environmental design
This project aims to advance the existing scientific knowledge on solar design by harnessing novel computational optimization methods. We explore a generative approach in which a combination of solar-driven metrics drives the form-finding process based on a multi-objective optimization process. The workflow is applied to a real ... more

A holistic generative cross-climatic method for solar-driven environmental design

This project aims to advance the existing scientific knowledge on solar design by harnessing novel computational optimization methods. We explore a generative approach in which a combination of solar-driven metrics drives the form-finding process based on a multi-objective optimization process. The workflow is applied to a real district case study in Tel Aviv and yields a large set of spatial solar-driven building masses, rather than one solar envelope volume, which corresponds to the different trade-offs between the environmental performance metrics applied.

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Environmentally responsive by urban design
This project offers new insights into the nexus between urban form and environmental performance both at the local and global contexts. We develop and explore a new set of harmonized workflows, which by capitalizing on the benefits of advanced computational intelligence, open new possibilities in the pursuit of a sustainable urb... more

Environmentally responsive by urban design

This project offers new insights into the nexus between urban form and environmental performance both at the local and global contexts. We develop and explore a new set of harmonized workflows, which by capitalizing on the benefits of advanced computational intelligence, open new possibilities in the pursuit of a sustainable urban form – going beyond energy considerations towards environmental quality and urban livability. As part of the project new simplified evaluation metrics are developed to be employed in multi-objective optimization studies of environmental performance at the urban scale.

Design For Collaboration (DFC)
The focus is on recognizing and analyzing the challenges that arise when autonomous agents with different capabilities need to interact and collaborate on unknown tasks, on providing methods for the automated design of these environments to promote collaboration, and on specifying guarantees regarding the quality of the design s... more

Design For Collaboration (DFC)

The focus is on recognizing and analyzing the challenges that arise when autonomous agents with different capabilities need to interact and collaborate on unknown tasks, on providing methods for the automated design of these environments to promote collaboration, and on specifying guarantees regarding the quality of the design solutions produced by our suggested methods. This research combines data-driven approaches with symbolic AI techniques and involves both theoretical work and evaluations on multi-agent reinforcement learning settings and on multi robot systems.

Market of Information and Skills for Multi Agent AI and Multi Robot Teams
Promoting multi-agent collaboration via dynamic markets of information and skills in which AI agents and robots trade their physical capabilities and their ability to acquire new information. The value of these traded commodities is dynamically computed based on the agents' objectives, sensors and actuation capabilities as well ... more

Market of Information and Skills for Multi Agent AI and Multi Robot Teams

Promoting multi-agent collaboration via dynamic markets of information and skills in which AI agents and robots trade their physical capabilities and their ability to acquire new information. The value of these traded commodities is dynamically computed based on the agents’ objectives, sensors and actuation capabilities as well as their ability to communicate with each other and ask for assistance. This framework maximizes performance and team resilience, without relying on a centralized controller.

Task and Team Aware Motion Planning for Robotics (TATAM)
Most current approaches to robotic planning separate the low-level planning of basic behaviors and the high-level search for a sequence of behaviors that will accomplish a task. However, in complex settings such as packing, personal assistance, and cooking, this dichotomous view becomes inefficient, especially in environments sh... more

Task and Team Aware Motion Planning for Robotics (TATAM)

Most current approaches to robotic planning separate the low-level planning of basic behaviors and the high-level search for a sequence of behaviors that will accomplish a task. However, in complex settings such as packing, personal assistance, and cooking, this dichotomous view becomes inefficient, especially in environments shared by multiple autonomous agents. We therefore offer new ways for integrating task-level considerations when planning the robot’s movement, and for propagating motion-planning considerations into task planning.

Robustness and uncertainty in dynamic decision problems
Understanding how to deal with model uncertainty is key for building resilient agents that can overcome environments that are unforeseen. My research group has studied for years different approaches that build robust agents that can cope with different types of uncertainties. Robustness means that policies are immune to changes ... more

Robustness and uncertainty in dynamic decision problems

Understanding how to deal with model uncertainty is key for building resilient agents that can overcome environments that are unforeseen. My research group has studied for years different approaches that build robust agents that can cope with different types of uncertainties. Robustness means that policies are immune to changes in the environment leading to better real time performance. In a sequence of papers we developed robust reinforcement learning and planning algorithms including scaling up such algorithms, learning the uncertainty set online, adapting quickly to unknown uncertainties, and online adaptation. The main application areas here are energy and transport services.

Using Reinforcement Learning for bit-rate selection
We consider a reinforcement learning scheme for selecting how and what to transfer in 5G networks. The problem at hand is to decide which bit-rate to use and which channels would yield the best tradeoff in terms of power, performance, and cost. We employ multi-objective, multi-agent reinforcement learning to best decide how to t... more

Using Reinforcement Learning for bit-rate selection

We consider a reinforcement learning scheme for selecting how and what to transfer in 5G networks. The problem at hand is to decide which bit-rate to use and which channels would yield the best tradeoff in terms of power, performance, and cost. We employ multi-objective, multi-agent reinforcement learning to best decide how to transmit the data. In previous work, we proposed to use multi-armed bandit algorithms that ignore the current channel and agent state (see O. Avner and S. Mannor, Multi-User Communication Networks: A Coordinated Multi-Armed Bandit Approach, IEEE/ACM Transactions on Networking ( Volume: 27, Issue: 6, Dec. 2019), https://ieeexplore.ieee.org/document/8875003), but in this project we go further and consider the state of the transmission, the real time requirements, and the changing channel.

Energy consumption and visual comfort in buildings
he aim of the project is to develop a new methodology for deciphering the human factor in illuminance-related building operation by taking advantage of recent developments in commercial building automation systems and the increasing prevalence of digital control systems for shading operation. The project involves the analysis of... more

Energy consumption and visual comfort in buildings

he aim of the project is to develop a new methodology for deciphering the human factor in illuminance-related building operation by taking advantage of recent developments in commercial building automation systems and the increasing prevalence of digital control systems for shading operation. The project involves the analysis of a large-scale dataset of long-term roller blinds operation in a multi-story office building in Tel Aviv, reflecting user preferences on indoor lighting conditions.

Methods for Wireless Sensor Network Localization
This project focuses on the design, analysis, development, and practical implementation of simple algorithms for solving the Wireless Sensor Network (WSN) Localization problems. In a recent paper, we solve the original non-convex and non-smooth formulation using first-order methods. We proposed a parameter-free algorithmic frame... more

Methods for Wireless Sensor Network Localization

This project focuses on the design, analysis, development, and practical implementation of simple algorithms for solving the Wireless Sensor Network (WSN) Localization problems. In a recent paper, we solve the original non-convex and non-smooth formulation using first-order methods. We proposed a parameter-free algorithmic framework that includes the whole spectrum ranging from a fully centralized to a fully distributed implementation, and that it can also achieve partial parallelization.

OPCloud is a web-based collaborative software environment for creating conceptual models of systems and phenomena with OPM standard  ISO 19450:2015. It is used in dozens of universities and enterprises, and its development is continuously adding new features and capabilities.
People:
Dov Dori
Massive Parallelization of Deep Learning
Improvements in training speed are needed to develop the next generation of deep learning models. To perform such a massive amount of computation in a reasonable time, it is parallelized across multiple GPU cores. Perhaps the most popular parallelization method is to use a large batch of data in each iteration of SGD, so the gra... more

Massive Parallelization of Deep Learning

Improvements in training speed are needed to develop the next generation of deep learning models. To perform such a massive amount of computation in a reasonable time, it is parallelized across multiple GPU cores. Perhaps the most popular parallelization method is to use a large batch of data in each iteration of SGD, so the gradient computation can be performed in parallel on multiple workers. We aim to enable massive parallelization without performance degradation, as commonly observed.

Resource efficient deep learning
We aim to improve the resource efficiency of deep learning (e.g., energy, bandwidth) for training and inference. Our focus is decreasing the numerical precision of the neural network model is a simple and effective way to improve their resource efficiency. Nearly all recent deep learning related hardware relies heavily on lower ... more

Resource efficient deep learning

We aim to improve the resource efficiency of deep learning (e.g., energy, bandwidth) for training and inference. Our focus is decreasing the numerical precision of the neural network model is a simple and effective way to improve their resource efficiency. Nearly all recent deep learning related hardware relies heavily on lower precision math. The benefits are a reduction in the memory required to store the neural network, a reduction in chip area, and a drastic improvement in energy efficiency.

Understanding and controlling the implicit bias in deep learning
Significant research efforts are being invested in improving Deep Neural Networks (DNNs) via various modifications. However, such modifications often cause an unexplained degradation in the generalization performance DNNs to unseen data. Recent findings suggest that this degradation is caused by changes to the hidden algorithmi... more

Understanding and controlling the implicit bias in deep learning

Significant research efforts are being invested in improving Deep Neural Networks (DNNs) via various modifications. However, such modifications often cause an unexplained degradation in the generalization performance DNNs to unseen data. Recent findings suggest that this degradation is caused by changes to the hidden algorithmic bias of the training algorithm and model. This bias determines which solution is selected from all solutions which fit the data. We aim to understand and control this algorithmic bias.

Queue mining for delay prediction in multi-class service processes
Information recorded by service systems (e.g., in the telecommunication, finance, and health sectors) during their operation provides an angle for operational process analysis, commonly referred to as process mining. Here we establish a queueing perspective in process mining to address the online delay prediction problem, which ... more

Queue mining for delay prediction in multi-class service processes

Information recorded by service systems (e.g., in the telecommunication, finance, and health sectors) during their operation provides an angle for operational process analysis, commonly referred to as process mining. Here we establish a queueing perspective in process mining to address the online delay prediction problem, which refers to the time that the execution of an activity for a running instance of a service process is delayed due to queueing effects. We develop predictors for waiting-times from event logs recorded by an information system during process execution. Based on large datasets from the telecommunications and financial sectors, our evaluation demonstrate accurate online predictions, which drastically improve over predictors neglecting the queueing perspective.

Dimensionality reduction
In this setting we study how to reduce the dimensionality of data for learning and for optimization, avoiding the “curse of dimensionality”.
People:
Nir Ailon
Ranking and preference learning
In this setting we study how to model people’s preferences over a set of choices, and how to optimize and learn given user preferences in a variety of applications.
People:
Nir Ailon
Online and bandit optimization
In this project we study how to make decisions in an unknown environment in an online setting.
People:
Nir Ailon
Large matrix approximation for acceleration of deep networks
In this work we apply matrix approximation theory to reduce the cost of training and deploying of dense layers in deep networks.
People:
Nir Ailon