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DIETI Contact person / Partner: Nicola Pasquino

Abstract

Understanding when a patient with bladder cancer is in a real progression of disease requires a great deal of interpretation of a huge amount of data that often may not be analyzed effectively by the oncologist when a decision must be taken. The aim of the research is to develop an appropriate classification of cancer that indicates, through machine learning techniques and statistical analysis of patients’ clinical variables, the status of the bladder cancer, how it is progressing and if a change of therapy is needed. The research will be in cooperation with Clinical Research Technology S.r.l. (IT), European Institute of Oncology (IT) and Klinik Sankt Moritz (CH).

Objective

The aim is to help the oncologist to better understand when a change of therapy is needed through machine learning methodologies and statistical analysis of clinical variables such as the patient's medical condition, the aggressiveness of the cancer, the effectiveness of the treatments.

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Can be assigned to one doctoral student of cycle XXXVI 

DIETI Contact person / Partner: Nicola Pasquino

Abstract

In oncological patients, pain is one of the most disabling symptoms. The correct approach to pain treatment has a positive impact on her prospectives to afford other therapies for recovery. Therapist defines treatment based on subjective pain scales and continuously refine drug dosages, based on the patient responses, in a loop that sometimes hardly converging. This project aims at creating an automatic pain assessment protocol, based on the collection of multimodal data generated during a patient's life. Patients will be remotely monitored, recording texts (questionnaires), video (self-report), biometric parameters (recorded via personal devices), drug timing scheduling, etcetera. This project falls in the area of big data technologies for health. Physicians will cooperate with computer scientists and data analysts to design, process, and evaluate this flux of data to be used both for real-time monitoring and training of AI systems.

Objective

  • the creation of a dataset for pain assessment substituting subjective scale for self-evaluation;
  • the definition of an interventionist protocol in the field of refining treatments and drug dosages;
  • the design of AI-based decision making systems in the field of big data for oncological purposes.

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Can be assigned to one doctoral student of cycle XXXVI 

DIETI Contact person / Partner: Francesco Verde

Abstract

In subjects with autoimmunity (i.e., multiple sclerosis), an important aspect of the immune system is how T lymphocytes respond to T cell receptor (TCR) stimulation. This is a key event controlling the fate of naïve T lymphocytes impacting on activation, differentiation and regulation of the immune response, which has been shown to be impaired in subjects with autoimmunity. T cell responsiveness is inherently stochastic (i.e., it cannot be predicted a priori) due to different sources of noise that are intrinsically produced by the underlying biochemical reactions. Such a noise may influence T cell activation grade by degrading the information transmission from the TCR.

Objective

The aim is to help the oncologist to better understand when a change of therapy is needed through machine learning methodologies and statistical analysis of clinical variables such as the patient's medical condition, the aggressiveness of the cancer, the effectiveness of the treatments.

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Can be assigned to one doctoral student of cycle XXXVI 

DIETI Contact person / Partner: Anna Rita Fasolino

Abstract

Software applications for the Health care are becoming more and more widespread and complex, as they can rely on the most modern ICT technologies. To cite a few, they can be developed as event-based and context-aware mobile systems, can be integrated with distributed software architectures for data collection, use machine learning techniques to support decision-making processes, or exploit virtual or augmented reality technologies. To manage the complexity of developing this type of system and assure their quality, acceptability and dependability, it is increasingly necessary to invest in the search for new development paradigms, architectures and techniques that simplify their development and validation.

Objective

    • Develop innovative model driven solutions for the development, testing, validation and certification of mobile, sensor-based and context-aware solutions for health care domain;
    • Carry out experimental validation of the proposed approaches by case studies in selected health care fields

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Can be assigned to one doctoral student of cycle XXXVI 

DIETI Contact person / Partner: Antonio Maria Rinaldi

Abstract

The need of having advanced tools for data analysis is one of the most important trends in the current economic, technological and social scenario and, nowadays, it is mainly based on methodologies and techniques of artificial intelligence and BigData. One of the goals of modern medicine is the "precision medicine", whose purpose is to offer personalized treatments based on the specific characteristics of patients and pathologies. In this context, new analysis techniques such as Radiomics is becoming a novel research field. The analysis of the large number of data derived from medical images allows to recognize many characteristics of cancers and they can be integrated with other molecular and genomic characteristics by obtaining further correlations.

Objective

The implementation of a decision support system based on a sematic multimedia bigdata to support the analysis of medical images represented by novel radiomics descriptors and texture analysis.

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Can be assigned to one doctoral student of cycle XXXVI 

DIETI Contact person / Partner: Francesco Gentile

Abstract

What we release into the environment can come back to us, often with negative effects. At high exposure levels, environmental pollution can cause adverse health effects. There are no doubts on the negative effects of environmental pollution on human health, what can still be verified is the correlation between implicated variables (lifestyle, pollutant, social context) and the appearance of many diseases (respiratory, oncological, etc.).
This project aims to integrate a huge amount of health, socio-economic and environmental data in order to determine the cause-effects relationships between environmental pollution and human health. In particular, the goal is to propose the study and the development of a forecast model related to the spread of pollutants in a given area and of a correlation model between the concentration of the very same pollutants and health data of people living in the analysed geographical area.
It’s of utmost importance to ensure the semantic interoperability between different databases, i.e. the capability of a computer system to cooperate and exchange data with other systems, in a more or less complete and error-free way, with reliability and resource efficiency. Interoperability’s purpose is to ease interaction between different systems as well as data exchange and reuse between not homogenous information systems.

Objective

The increase in pollution-related diseases turned science’s attention to the correlation between man-environment to safeguard the living condition of the planet and its inhabitants. Starting from the concentration maps of the pollutants taken into consideration it will be possible to identify impact areas and/or the ones with higher pollutants concentrations. Information obtained will support the acknowledgment of a correlation with health data regarding patients suffering respiratory, oncologic, etc. The development of knowledge on the relationship between environment and human health is mandatory to develop programs useful in protecting environment and in preventing related diseases.

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Can be assigned to one doctoral student of cycle XXXVI

DIETI Contact person / Partner: Paolo Maresca

Abstract

Health-related analyses generate huge amounts of heterogeneous data. Obtaining knowledge from these “big data” is both challenging and promising for data-driven medicine, that can benefit from AI tools to infer models for such complex problems. The PhD research activities will include model design, optimization, and validation, applied to prospective and retrospective studies, with the support of the MS partner (including data sanitization operations, and resulting analysis and validation). The PhD student will spend at least six months abroad working under the guidance of one or both our foreign partners, University of Warwick (UK) and University of Saint Louis (US).

Objectives

Main goals include the development and application of innovative approaches to prospective and retrospective studies, aimed at modeling the complexity of infectious diseases. The approaches will be supported by AI and Big Data technologies.

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DIETI Contact person / Partner: Mario Di Bernardo

Abstract

A key challenge for the development of personalized therapies is the ability of delivering drugs in situ and avoid unwanted side effects to the patients. A promising approach is the use of synthetically engineered cell populations with advanced functionalities whose collective behavior can be carefully controlled so that they can move to the target area and release some drug. This proposal focuses on the development of multicellular control strategies to create microbial consortia in which cell populations cooperate to realize this challenging goal. The project will be supervised by the proponent together with prof Brunetti and prof Surace at the Dept. of Translational Medicine and will involve active collaboration with leading groups at ETH and Bristol and the start-up companies at TIGEM.

Objectives

  • Develop synthetic biology approaches for drug delivery based on multicellular consortia;
  • Synthesize gene regulatory networks to implement the desired functions in vivo;
  • Adopt and develop methods from ICT to achieve multicellular control of bacterial and mammalian cell populations;
  • Carry out in-vivo validation using optogenetics and microfluidics platforms.

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DIETI Contact person / Partner: Carlo Sansone

Abstract

Sentinel node (SLN) biopsy is used to stage patients with early-stage breast cancer with clinically negative axillary nodes, but it is invasive and with complications. To overcome such issues this research aims to predict SLNs metastasis using radiomics on T1w-MRI of the native tumor, even in combination with histological features and patients clinical data, supporting treatment decision by providing a non-invasive approach in clinical routine.

Objectives

Development of a radiomic platform to predict sentinel nodes metastasis in a non-invasive ways using artificial intelligence-based methods extracting information from T1w-MR scans and patient clinical data.

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DIETI Contact person / Partner: Mario Cesarelli

Abstract

The project consists on the development of an innovative m-Health system based on wearable devices in e-textile technology. M-Health means the provision of healthcare services supported by "mobile" devices which the most recent studies identify as the ICT sector with the greatest future potential expansion; while for e-textile we mean the integration of electronic components directly into washable and sensorized garments, commercially available at low and decreasing costs and suitable for home care based applications.

Objectives

Project, development and experimental setting of e-textile based prototyping t-shirt and socks for biomedical physiological signals and movement analysis' indexes processing.

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