Consulta ofertes d'altres estudis i especialitats
The main objective is to develop and deploy the IEEE 802.15.4 standard for Internet of Things (IoT) over the Recursive InterNetwork Architecture (RINA) architecture. The work will be conducted in collaboration with the i2cat research centre (https://i2cat.net).
The integration of RINA with devices based on the IEEE 802.15.4 standard will allow more efficient and secure management of sensor networks, optimizing performance and scalability in Internet of Things applications. This project will address frame adaptation, resource management, security and quality of service, providing an innovative solution that will improve the interoperability and functionality of IoT systems. The research will include the design, implementation, testing and optimization of the shim, with the aim of creating a robust platform that enhances RINA's capabilities in the management of sensor networks and smart devices. The 802.15.4 shim will be integrated with the RINAsense architecture, which is a library for rapid prototyping of RINA sensors.
L'objectiu del projecte consisteix en classificar un conjunt d'espècies a partir d'imatges reals d'ocells. S'estudiaran diferents solucions basades en característiques locals i/o deep learning.
Els detalls es donaran a l'alumne personalment
In the proposed project, we are interested in the mobile setting, and propose the use of depth information, on top of the usual RGB (Red, Green, Blue) pixel data acquired by mobile device cameras, to track and quantify visual attention.
Automatic gaze tracking methods have been used in the recent years for various purposes, including measuring ad attention or enabling for gesture-less user-device interactions. Most of these methods have been tested in the desktop setting, while the few reported attempts that addressed the mobile setting report low accuracy and require continuous calibration. Additionally, the aforementioned methods rely on expensive sensors, such as infrared eye trackers, that limit their scaling capacity. Other methods employ touch-based interactions (e.g., tracking zoom/pinch gestures and scroll activity) to produce an estimation of the user gaze which, at best, are weakly correlated with visual attention. However, 42% of the time spent on websites is by mobile users, while similar trends are reported for the percentage of page views per visit, which creates an opportunity for a novel attention measurement technology to take root; one which can offer accurate, reliable, and scalable measurements.
In the proposed project, we are interested in the mobile setting, and propose the use of depth information, on top of the usual RGB (Red, Green, Blue) pixel data acquired by mobile device cameras, to track and quantify visual attention. Depth information can either be estimated with post computer visual processing or acquired directly with high precision, using advanced LiDAR sensors that newer smartphone models are currently equipped with. Furthermore, we propose the use of "lightweight" Deep Learning (DL) techniques to achieve an accurate and robust gaze point estimation without the need of extensive calibration. Unlike prior art, we will consider the use of historical information to inform future predictions and will examine how such models can be tailored to each user by injecting personalized data. In addition, we propose a more lightweight Neural Network (NN) architecture, suitable for the processing power of mobile devices, that also leverages the use of video or photo frames with depth sensory data.
The candidate will:
El projecte consisteix en usar tècniques de visió per computador per a l'aprenentatge i reconeixement d'un dataset de senyals de trànsit.
Els detalls es donaran a l'estudiant personalment
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