Research and Development Projects
With our Research and Development unit we also create Cloud Native applications and help you in porting applications to the Cloud, adopting the most advanced Security by Design models and best security practices in software development. One area of application is our participation in Public Administration tenders, also with reference to the national PNRR plan.With our Research and Development unit we also create Cloud Native applications and help you in porting applications to the Cloud, adopting the most advanced Security by Design models and best security practices in software development. One area of application is our participation in Public Administration tenders, also with reference to the national PNRR plan.
SELCA - Intelligent Network System Supporting Clinical Analysis Laboratories for Precision Instrumental Diagnostics and Predictive Genomics-based Diagnostics
Project Co-financed by the European Union, the Italian State, and the Sicilian Region under the P.O. FESR Sicily 2014-2020
Reported Expenses 248.329
Contribution: 184.172
The general objective of the project is to create an intelligent information system to support clinical analysis laboratories that is more advanced than the existing smart LIMS (Laboratory Information Management Systems). It envisions two intelligent systems currently unavailable on the market::
- SELCA Expert System: Capable of limiting measurement errors, ensuring reliable clinical tests, supporting clinical diagnostics, and enabling accurate assessments of laboratory activity.
- A data mining system for predictive diagnostics based on genetic markers, considering hypotheses advanced by scientific literature (SELCA miner).
The project was carried out in the following phases:
- Study of standardized interfacing through physical-cybernetic components of: automatic analyzers for clinical tests; a genetic sequencer for predictive diagnostics; IoT systems alongside instruments and the environment to activate the quality support control flow
- Activation of the IT infrastructure to implement: the advanced smart LIMS equipped with the expert system (SELCA); the LIMS to provide predictive medical diagnostics starting from genetic data (SELCAminer); the version, named SELCAnet, capable of interacting with software applications from other medical centers in the network (interoperable and in the Cloud).
- Design, development, and testing of the following modules:
- Support system for clinical analysis reporting through the integration of historical information on patient analyses and information from the IoT flow monitoring the operational conditions of the analyzers.
- Support system for reporting analysis from genomic sequencers (named Selca Genetics), which assists particularly in reporting Variants of Uncertain Significance (VUS). The system includes an in-silico tool based on Artificial Intelligence (AI) specifically developed to predict the pathogenicity of genetic variants and AI modules for literature mining.
- Selca miner, including a model to classify blood disorders (7 classes of diseases), and designed to collect data on a nutritional status assessment scenario for cancer patients (acquired from certified smart scales and physical measurements and cross-correlated with hematological analysis data).
- Two mobile applications to streamline certain sample tracking and quality assurance procedures, in particular: 1) Cold Chain Control during the transport of biological samples and 2) Sample tracking with RFID techniques and expired sample and reagent control.
The project developed a flexible and powerful infrastructure (Selca and SelcaNet) in which various vertical modules offering advanced functionalities are integrated. The individual modules are independent and can, in turn, integrate with LIMS already available in various laboratories.
The modules are: Selca miner, Selca Genetics, Cold Chain Control, Sample and Reagent Tracking with RFID.
The Selca Genetics module was tested in collaboration with COES (Experimental Hematology Oncology Center at the University of Catania) for variants related to BRCA1 and BRCA2 genes. The SELCA platform integrates all modules and allows the analysis laboratory to perform quality controls related to analyses and laboratory conditions. For external interoperability, the demonstrator supports the following use cases: Patient access to their own analyses (general); Access to analyses of their patients by family doctors/specialists, including access to historical series for analytes per patient and access to predictive model results provided by the SELCA system applicable to the type of analysis performed.
iHOSP, System aims to provide remote medical care for terminally ill patients, offering a level of service comparable to that of hospital care through an interactive, smart-medicine technology infrastructure
Project Co-financed by the European Union, the Italian State, and the Sicilian Region under the P.O. FESR Sicily 2014-2020
Eligible Amount: 265.816
Contribution: 184.172,00
Starting Date: 27/11/20
The project, named iHOSP, aims to provide remote medical care for terminally ill patients, offering a level of service comparable to that of hospital care through an interactive, smart-medicine technology infrastructure.
iHOSP is an IT solution for home healthcare in which the patient is in a physically comfortable environment—at home—while also situated in a virtual environment that allows access to hospital-level care. This care is provided with the same efficiency and responsiveness, along with interactivity with medical and nursing staff through specific messaging and video communication systems that enable tele-visits and tele-consultations. Its primary technical feature is a modular and flexible service design, allowing for the selection of modules best suited to each patient’s needs, with each module adaptable to the patient’s condition, ranging from simple monitoring to real-time diagnostics and prognostics.
The vital parameters currently managed by the project provide a significant overview of the patient’s health status. These parameters include body temperature, oxygen saturation (SpO2), systolic and diastolic blood pressure, blood glucose levels, overall weight and muscle mass percentage, hydration status, calorie consumption, heart rate, ECG (particularly for arrhythmia detection), HRV (heart rate variability and stress), and PPG (blood pressure and cardiac output measurements). The service is based on agreements with several major certified medical device manufacturers, including Viatom, Berry, and iHealth, and collaborates with leading companies in intelligent edge computing, such as NVIDIA, for real-time data loggers.
iHOSP utilizes its own telematics and IT platform to transmit data collected by measurement devices via its gateways to cloud servers, where they are stored in the project’s databases (DBs). These databases include both standard relational management DBs and metrological or time-series DBs, capable of real-time data storage (even at high sampling frequencies) from remote IoT systems. Specifically, the project uses the metrological database InfluxDB and custom systems for real-time data visualization, which are initially accessible by an emergency control center and, subsequently, by primary care physicians. This setup allows doctors to consult and treat patients promptly or in a scheduled manner based on up-to-date vital data through the tele-visit systems developed within the project.
iHOSP is also a research initiative that aims to continue supporting its technology partners and collaborators in developing hardware and software systems. These systems aim to facilitate data collection in healthcare further and enable processing with artificial intelligence algorithms, integrating Edge Computing and Body Sensor Networks