Shiva Salsabilian selected to attend the CRA-W (Computing Research Association-Women) Grad Cohort for Women Workshop

ECE PhD student Shiva Salsabilian been awarded a scholarship to attend the CRA-W (Computing Research Association-Women) Grad Cohort for Women Workshop on April 2021. Workshop will be virtual event this year due to the ongoing pandemic.

The CRA-W Grad Cohort workshop, initiated in 2004, is generously funded by sponsors from industry, academia, the National Science Foundation, and the computing community. Grad Cohort aims to increase the ranks of senior women in computing-related studies and research by building and mentoring nationwide communities of women through their graduate studies.

Shiva works in the Integrated Systems and Neuroimaging Lab with supervision of Prof. Laleh Najafizadeh. Her current research focuses on time series analysis of neural data and machine learning/deep learning methods.

More information about the Grad Cohort Workshop Event Page can be found at  https://cra.org/cra-wp/grad-cohort-for-women/

Congratulations Shiva!

Announcing the 2021 Recipients of the Paul Panayotatos Endowed Scholarship in Sustainable Energy

The 2021 Paul Panayotatos Endowed Scholarship in Sustainable Energy has been awarded to ECE graduate students Tahiya Chowdhury and Murtadha Aldeer.

The Paul Panayotatos Endowed Scholarship was established in memory of Professor Paul Panayotatos who served for 30 years as a professor in the Department of Electrical and Computer Engineering. The Scholarship is awarded to graduate students demonstrating academic excellence and pursuing an advanced degree in the sustainable energy areas including renewable energy, energy efficiency, energy conversion or a related area.

Tahiya Chowdhury

Tahiya is a Ph.D. student working with Prof. Jorge Ortiz and a member of the Cyber-Physical Intelligence Lab. She received an MS in Computer Engineering from Rutgers University and a BS in Electrical Engineering from Bangladesh University of Engineering and Technology. Her current research focuses on developing deep learning-based models to analyze occupants’ behavior in buildings. Using the internet-of-things and machine learning, her work explores time series segmentation, occupancy detection, and activity recognition using limited data for dynamically changing physical environments.

According to the Department of Energy, 39% of total US energy consumption is used for heating, ventilation, air conditioning (HVAC), and lighting in residential and commercial buildings. The ubiquitous sensing ability of the internet-of-things enables occupancy and activity detection applications to sense occupants’ presence and can be used for adaptive building energy optimization. Deep learning -- a machine learning paradigm that involves learning the physical world events by training multi-layer neural networks -- powers such occupant-driven HVAC control systems when given access to large computing resources and massive datasets. However, the physical environment is dynamically changing over time. This increases the amount of data and computational cost required to learn new, evolving data. There is a growing concern over the amount of power required for training deep models in long-term deployment and its carbon footprint on Earth. Light-weight, computationally inexpensive models that require fewer examples can be trained faster, and consume less memory and power. Such energy-efficient models are particularly useful for low-power devices used in applications such as activity recognition and occupancy detection. Tahiya’s research focuses on developing deep learning models that are high-performing for evolving data through adaptive strategies tailored for energy-efficient training. This can also bring down building energy consumption by reducing unnecessary heating, cooling, air conditioning, and lighting, and thus curb its effect on climate change.

Murtadha Aldeer

Murtadha Aldeer is a Ph.D. student working with Professor Richard Martin and Professor Jorge Ortiz in the Department of Electrical and Computer Engineering. He is a member of WINALB and Prof. Jorge Ortiz' lab – the Cyber-Physical Intelligence lab – where researchers focus on designing new low-energy systems and machine learning techniques on embedded sensors for connected health applications. One of the main application domains is in smart pill bottles for medication adherence monitoring and user identification.

For patients managing chronic diseases, medication non-adherence is one of the leading factors determining outcomes. In many cases, medication adherence can make the difference between life and death. It is estimated that almost 50% of patients with chronic illnesses do not adequately follow their prescribed medication-intake schedules. That translates to almost 125,000 deaths and about 25% of hospitalizations each year. Also, 16-27% hospitalization and death in nursing homes can be attributed to medication errors, with over 75% of patients experiencing medication and inappropriate medication events. Indeed, these issues have driven a recent wave of Cyber-Physical Systems (CPS) research, including commercial development of new pill bottles that monitor when a pill is extracted.

Murtadha's PhD research focuses on low-energy sensing and communication for smart pill bottles. Such pill bottles have an array of embedded sensors and are connected to a network. A smart pill bottle, for example, can help medical practitioners observe how well patients comply with their medication schedules.

Murtadha’s current work has even used sensors to identify who is taking the pill and when, through their interaction with the bottle. The system, is an in-bottle patient discrimination system that is low-energy and unobtrusive. It uses PIP-Tag (a wireless transmitter designed at WINLAB), accelerometers, and load cells. The system, called PatientSense, also uses computationally lightweight machine learning models for feature construction, and patient classification. 

Congratulations to Tahiya and Murtadha!

 

 

ECE Researchers Win Poster Competition Prize at the Applied BioMath Quantitative Systems Pharmacology Summit

ECE PhD student, Vahideh Vakil, received the second place award for her poster "Dose Optimization for Drug-resistant Cancer Treatment", which was presented at the 2021  Applied BioMath Quantitative Systems Pharmacology Summit. She is working under the supervision of Professor Wade Trappe on mathematical modeling and networking techniques applied to systems pharmacology and systems biology, with a goal of developing mathematical techniques to improve medical treatments for human diseases. The emergence of drug resistance is one of the primary barriers to the success of cancer treatment strategies. In this poster presentation, a Quantitative Systems Pharmacology (QSP) approach was presented for designing a multi-drug dosage strategy to combat drug resistance and minimize the tumor size in an aggressive treatment, followed by a dosage design that controls the tumor burden and postpones the rise of resistance in a containment treatment strategy. Given the restrictions in time and resources required to test all possible treatment scenarios in vitro, it is essential to explore a cancer’s response to the treatment in silico, ultimately allowing one to better predict the outcome of the treatment toward a personalized treatment. The proposed QSP approach can be applied to find the optimal dosage design to eradicate/control the tumor progression, given any clinical setting, pharmacological parameters and personalized for an individual patient’s needs.

Congratulations to Vahideh and Wade!

ECE Guest Speaker Series: Efficient AI Seminar - Programming Neuromorphic Hardware for Fast, Efficient and Online Learning

 

You're Invited!
To join, click the flyer below or use this Zoom link.
Meeting ID: 989 5797 9745
Password: 827347

 

Title: Programming Neuromorphic Hardware for Fast, Efficient and Online Learning

Speaker: Dr. Emre Neftci, Department of Cognitive Sciences and Computer Science, University of California Irvine

 

Mehdi Javanmard receives NIH Grant for developing a breathalyzer for COVID-19 diagnostics

ECE Associate Professor Mehdi Javanmard is the co-recipient with Rutgers MAE researchers of an award from the National Institutes of Health (NIH) Rapid Acceleration of Diagnostics (RADx-Rad) program under the guidance of Rutgers HealthAdvance Fund™ for the project "A rapid breathalyzer diagnostics platform for COVID-19". This is a two-year project awarded at $443,000. 
 
The project seeks to deliver a rapid diagnostic breathalyzer prototype for capturing infectious pathogens in the oral cavity with results in minutes and without the need for an uncomfortable swab test. This technology combines a liquid impactor concept with an impedance sensor to rapidly detect the presence of SARS-CoV-2 antigens within a patient's breath. The goal of the project is the development of a product that is simple to use and requires no intermediate professional or processing lab. The unique element of this product is that it can be easily reconfigured for detection of other airborne viruses.
 
Congratulations Mehdi!
 

Mehdi Javanmard receives NIH Grant to rapidly screen the environment for mosquito-borne pathogens

ECE Associate Professor Mehdi Javanmard is the co-PI of an award from the National Institutes of Health (NIH-NIAID R21) for the project "Non-invasive approaches to mosquito-borne pathogen surveillance using excreta." Dr. Dana Price from Rutgers Plant Biology and Pathology is the PI on this two-year project awarded at $354,000.

 
The researchers seek to develop a methodology to rapidly screen the environment for mosquito-borne pathogens before they reach/infect a human host. Such tools can help to prevent future pandemics like the current one. Mosquito-borne diseases are expanding rapidly across the globe. Recent outbreaks of West Nile, dengue, chikungunya and Zika viruses have sickened hundreds of millions of people, while parasites such as malaria kill over 400,000 annually. The spread of competent vectors and their pathogens to new continents and climates, coupled with the recent rapid global expansion of other novel RNA viruses that infect humans, emphasizes the need for rapid and reliable pathogen surveillance techniques now more than ever. Early detection ensures that vector control efforts are directed to the right location at the right time to avert a potential epidemic. Surveillance and detection of infected mosquitoes is often an early predictor of impending human infection however comes with challenges, including the time involved to sort, identify and extract RNA from large numbers of mosquitoes while maintaining a cold chain. This requires that mosquito surveillance, identification, and pooling precede virus testing. It has recently been shown that mosquitoes with a disseminated infection excrete (as excreta/feces) arbovirus and parasites in concentrations suitable for detection when sampled in the lab. This allows for rapid and non-destructive sampling and pathogen testing, however current field trapping devices are unable to efficiently collect the randomly distributed ca. 1.5 µL excreta droplets. To address this issue, we propose here to design two novel excreta-collecting mosquito traps for host-seeking and ovipositing (or gravid) mosquitoes, respectively, that utilize sugar feeding stations and a custom fabricated collection system composed of a nanostructured superhydrophobic surface to funnel and condense the excreta sample. An appropriate hydrophobic surface conformation will first be selected and tested for efficacy during initial field trials. This prototype will then be scaled up and configured to trap wild mosquito populations while channeling and aggregating excreta produced within the trap to a standard microcentrifuge tube attached externally for quick and easy collection. To test the ability of both devices to effectively sample potential pathogens from trapped mosquitoes, the traps will be deployed across five New Jersey counties spanning a multitude of mosquito habitat in collaboration with county mosquito control agencies. The captured excreta will be subject to metavirome sequencing to identify and assemble genome data from the full breadth of both known and potentially novel RNA viruses in the samples, representing a broad diversity of New Jersey mosquitoes. This project represents a foundational step towards sentinel “mosquito free” surveillance of vector-borne pathogens that will facilitate rapid response to mitigate enzootic outbreaks before they occur.
 
More details on the project can be found at the NIH page here.
 
Congratulations Mehdi!

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