Projects

HTTK toob kokku juhtivad psüühika, keha, sotsiaalse konteksti ja ruumilise konteksti uurijad, et luua distsipliinide ülene arusaam komplekssüsteemidest, mis mõjutavad heaolu: elu kvaliteeti erinevates valdkondades objektiivses ja eriti subjektiivses mõttes. Me käsitleme 4 uurimisvaldkonda. 1) KORRELAADID: Millised bio-psühholoogilised ja sotsiaal-ruumilised omadused on seotud heaolu püsivamate komponentidega nagu eluga rahulolu? 2) MEHHANISMID: Kuidas rulluvad inimestes lahti heaolu dünaamilised komponendid, näiteks emotsioonid? 3) ENESEHOOL: Kuidas inimesed ise oma heaolu enesehoole ökosüsteemides mõistavad ja juhivad? 4) SEKKUMISED: Kuidas heaolu isikustatud ja kohandatud sekkumistega edendada? HTTK rahastab interdistsiplinaarseid ametikohti; registriandmetega lõimitud longituud-uuring; doktorikooli; tippsündmusi; ja rändluse ja koostöö toetusmeedet. HTTK tõstab osalevate rühmade, asutuste ja Eesti heaoluteaduste tulemuslikkust ja mõjukust.

This multidisciplinary study aims to decrease cardiovascular mortality in Estonia by increasing treatment adherence and empowering patients to create a supportive self-management environment for monitoring their health and actively participating in the treatment process. Analysing 1) the LDL-cholesterol values of North Estonia Medical Centre (NEMC) patients to find underdiagnosed and undertreated patients and 2) treatment adherence to lipid-lowering drugs (LLD). Identifying patient groups who need additional support. During the pilot project, a novel application will be developed, together with personal support, used to increase LLD adherence. The novelty of the tool – combining the data used in Estonia from the Nationwide Health Information System, ePrescription, and NEMC electronic medical record with the data collected by the patient and enabling two-way communication between the patient and medical staff. In the last stage of the study, an impact assessment of the tool is planned.

The overall goal of the project is to increase the number of healthy life years of the population. Currently, Estonia has recorded one of the lowest number of healthy life years at birth in the EU. To achieve this goal, three closely related areas of digital health are researched, developed and piloted. We use the standardized data exchange environment and digital data of the Estonian health information system (EHIS) to develop applications that increase the use of data collected by the person for health promotion, prevention and control of chronic conditions. Second, we focus on sensors and digital applications supported by artificial intelligence (AI) to allow a person to collect both biosignals and textual data in machine-readable form. With this, we speed up the detection of health risks and reduce the healthcare workload. Thirdly, we develop various AI methods by combining the data in EHIS and the Health Insurance Fund's database, as well as the data collected by the person.

The aim of the Project “Development of universal data model and continuity of care processes based on international standards for new generation health information systems” is to find appropriate model for digital health care data that could be used for data collection and storage in new generation TIS with the feasibility to implement the same model in other large scale Electronic Health Records (EHR). This data model will be foundation for health care professionals to use digital decision support systems in context of Electronic Medical Record. The definition of data model would lead to the development of EHR processes where minimal set of health status summaries are defined for each specialty/health issue to make evidence-based decision possible. In turn, defined health status summaries are needed for development of continuity of care processes and training of artificial intelligence and development of intuitive Electronic Medical Records.

Goal of the CoE in ICT, EXCITE, is to bring together the Estonian research competences in the areas of modern robotics, Internet of things, and cyberphysical systems; securiy and dependability; software engineering and foundations of computing; and biomedical application areas. The alignment of research areas strengthens the mutual collaboration and cross the field joint activities, allows to create the capacity and critical mass of next generation ICT researchers. Linking the hardware (robotics, systems design, internet of things, biomedical devices), software and services, developing the security and dependability, working with massive data, and applying these competences to biomedical applications among others, will create a significant impact on society and economy.

"EXCITE brings together the topranked ICT research groups Estonia to work jointly on a focussed, yet broad and extendable, research programme. It will capitalize on the existing expertise to create synergies on the rich but fragmented landscape of the Estonian ICT research. The consortium will advance foundational theories of model verification and data analysis. On this groundwork, it will develop methods and tools for sound practices of designing and analyzing reliable and secure ICT systems processing large data volumes, as demanded by applications to domains of high socioeconomic relevance (cyberphysical and robotic systems, ehealth and biomedical systems). We will start with 10 cooperation themes with clearly defined objectives, methodology and expected results. These themes will be refined and redefined after 3 years. EXCITE will support research sustainability and provide a development opportunity for young researchers by financing 20-30 PhD students and postdocs.

In the case of impaired cerebrospinal fluid absorption, or hydrocephalus, the pressure in the cerebral cortex increases, which also narrows the blood vessels that supply the brain, and thus the dynamics of blood flow pulsations in these blood vessels change. The dynamics of blood pulsations change in a similar way in the case of narrowing of the blood vessels, which is caused, for example, by calcification of the arteries of the leg. Both situations would require a simple, repeatable, and inexpensive diagnostic method for early detection and monitoring of changes. Therefore, the aim of the postdoctoral project and a study carried out at the City University of London was to investigate the effect of constriction on the pulsating optical signal recorded from an artery and to develop an optical method to detect the constriction. An arterial system was developed consisting of a pump and tubing that created different levels of fluid flow obstruction. Suitable optical sensors were built to record the optical signal from the tubes and later from the arteries. In the built arterial system, an optical signal related to the change in blood volume and flow was recorded before and after the induced constriction in the tube. Characteristic changes were detected in the signals, which are directly related to narrowing of the arteries mimicking tubes. As follows, the study was carried out in a small group of subjects, in which the constriction in the arm arteries was artificially induced at different levels. The changes detected from the optical pulsating signal recorded from the artery of the arm were consistent with the changes in the optical signal found in the constructed model. These results provide some confidence that this method and optical technology can be used to detect narrowing of the arteries. However, further studies are needed, for example in patients with calcified leg arteries, and thus to monitor and, if necessary, to improve this methodology.