Tech Portfolio

Computer Sciences

Korman Simon, Dr.

Korman Simon, Dr.

Dr. Simon Korman is a faculty member at the Computer Science department of the University of Haifa.

His research is in the field of Computer Vision, focused on geometry and matching oriented problems, which include establishing visual correspondence, template matching, camera pose estimation, and the recovery of 3D structure and motion in a scene. In particular, he is interested in the application of techniques from machine learning, robust estimation, randomized sampling and sublinear algorithms to such problems.

He received his PhD from Tel-Aviv University, during which he interned at Microsoft Research, Redmond. Following that, he spent four years as a post-doctoral researcher at the UCLA Computer Science department and at the Weizmann Institute Mathematics and Computer Science department.

Prior to his PhD studies, he held the position of Head of Algorithms at IoImage, a startup that specialized in developing intelligent video appliances, with real-time capabilities including detection and tracking of intruders and vehicles as well as other kinds of threat detection in surveillance camera video streams.

Graphics & Robotics in Play

Decoding the art of animation is my passion. 

Dr. Roi Poranne's research focus on the development of new computational tools that enhance virtual reality, machine learning, and art and design apps.

He is currently working on a new project to enhance virtual reality applications in stroke rehabilitation therapy with colleagues from 
the Faculty of Social Welfare and Health Sciences. He is delighted that His research is contributing to quality of life and health care outcomes.”

Dr. Roi Poranne, a Senior Lecturer in the Department of Computer Science, joined the University of Haifa through the Returning Scientists Program, after completing his Postdoc at ETH Zurich. 

 

Related pages 

Dr. Roi Poranne's researcher page

 

Safeguarding Cyber Security: Encryption in the age of IoT

(Photo by: Eli Gross)

 Main Researcher: Prof. Orr Dunkelman

 

Background

The IoT (Internet of things) era brings with it a lot of promises: from energy saving to smart devices and smart homes, from better medical treatment to personal helpers that save time. This era relies heavily on many technologies, ranging from networking technologies that keep everything online and connected (such as internet, Wi-Fi and mobile communications), to machine learning (and especially deep learning) technologies for making smart predictions.

At the heart of all these technologies lies a huge volume of data, and most importantly ̶ private and sensitive data which includes not only medical information but also general private information that can be easily inferred. (e.g., daily schedules, shopping habits, political views, sexual preferences).

In addition to privacy concerns, the IoT vision is of a world controlled by many devices (e.g., for saving energy). This control should be highly protected and cherished, as a misuse of it can have a devastating impact. (Consider the DDoS attack on Dyn, for example, which relied on building a zombie network of IoT devices.)

To resolve these security and privacy issues, computer security must adapt. It must expand its reach from protecting fully fledged operating systems and strong devices to protection of low-end devices, using low-end computing power (computing power that is unlikely to be upgraded). The task of protecting the IoT ecosystem is key to progress in IoT development worldwide.

From lightweight to resource-heavy cryptography

Prof. Orr Dunkelman is an associate professor in the Department of Computer Science at the University of Haifa. His research focuses on cryptanalysis, cryptography, security, and privacy, especially in the context of biometric data. During his research he has worked on designing low-cost cryptographic primitives, such as the KATAN/KTANTAN families of block ciphers. The security building blocks that will be used to offer security and privacy to the IoT world will rely on the design and analysis of such lightweight cryptographic solutions.
Prof. Dunkelman has also worked on the new and exciting topic of white-box cryptography. Comprising yet another layer of security for the IoT world, white-box primitives try to maintain security in the presence of a continuous adversary which observes not only communications but also internal computations. As part of a joint research with a large international company, his research team has developed a family of new white-box primitives for their IoT solutions.

Potential Application
Security and privacy for IoT devices

This email address is being protected from spambots. You need JavaScript enabled to view it.

 

Related pages : 

Prof. Orr Dunkelman researcher page

Solving 'Big Data' Problems using Coresets

Lead Researcher: Dr. Dan Feldman

Background
"Big data" describes the volumes of data sets streaming from all aspects of our lives in unprecedented amounts, collected from posts on social networks, readings from sensory technologies, digital pictures and videos, to GPS signals from mobile phones and other data sources estimated at 2,500,000,000,000,000,000 a day! Commonly used software tools are incapable of processing all this information in real-time.
In a world where technological progress generates these massive amounts of digital data, leaner, faster and more affordable solutions are needed to help sort and analyze information in real time.

Coresets – A New Paradigm for Better and Faster Machine Learning Performance in Robotics
Coresets (data reduction algorithms) are a new paradigm that can help process more accurate results of bigger and more complex datasets faster than ever. Unlike compression technique (like ZIP or MP4), coresets is a problem-dependent data reduction technique that enables solving a problem faster by order of magnitude. With smaller datasets, running times are improved while only marginally compromising the original data.

Dr. Dan Feldman, Assistant Professor in the University of Haifa's Department of Computer Science, is seeking to bridge the gap between mathematical theory and engineering applications and is introducing a new approach to solving big data problems plaguing the IT industry. Feldman and his students are using coresets (as a statistical computation tool) to solve fundamental problems emerging in big data that affect machine learning performance through robotic projects in the Robotics and Big Data (RBD) Lab.

The RBD Lab's projects are aimed at supporting better business intelligence and optimizing the performance of simple robots for improved customer service and increased cost saving.

Research Status
The group has recently begun to apply coresets in determining differential privacy in solving cloud computation security challenges. Statistical data is extracted from large datasets while preserving the privacy and anonymity of its users, creating what the research team refers to private coresets or sanitized database.

Other projects include the development of gesture control armbands – the future of wearable technology – and human-computer interaction that offers the user hands-free control of a device (e.g., a smartphone, computer, and even industrial machines), using only gestures and motion.

At the Robotics and Big Data (RBD) Laboratory, a team of Computer Science students are developing inexpensive real-time tracking systems that will turn ordinary toy drones into autonomous drones, capable of navigating through complex grounds and buildings by means of low-cost (but very safe) ‘simple’ hardware with strong novel algorithms.

Soliman Nasser (PhD student) and Ibrahim Jubran (MSc student) are developing state-of the-art algorithms based on coresets that will be able to track and localize flying robots. With the help of research assistant Michael Volgin and BSc student George Kesaev, the team has succeeded in creating a low-cost tracking system to ultimately replace commercial systems that are up to a hundred times more expensive.

 

Applications

  •  Drone / quad-copter navigation / tracking systems
  •  Image de-noising
  • Telecommunication network optimization
  • GPS / video data compression and analysis
  • Google page-ranking
  • Latent semantic analysis
  • Homomorphic encryption / learning while preserving privacy using differential privacy and homomorphic encryption
  • Additional confidential applications

 

Related pages

Dan Feldman, Dr. researcher page

Robotics and Big Data Lab website

 

 

 

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