Wireless Biomedical Sensor Networks: The Technology

Freitas, Eduardo; Azevedo, Joaquim Amândio Rodrigues

doi:10.11159/icbes16.134

Cited by 8 publications

(2 citation statements)

References 18 publications

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“…Figure 2 shows IoMT devices [19]. Movement detecting sensor can detect the physical activities, collect real-time information of the sensor, and transmit it by operation with accelerometer [20]. Pressure sensor provides the range of blood pressure and expanded blood pressure, and monitors blood pressure and pulse rate.…”

Section: Iomtmentioning

confidence: 99%

A Study On The Construction Of Virus Infection Area Information System Using Iomt Environment

Sim¹

2021

TURCOMAT

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With the recent emergence of novel virus, the importance has been empathized on the epidemiologic investigation of the infection route and control of infected patients. Control system on the viral infections is required since the new virus expression cycle becomes faster which was not previously identified with the spread to other regions and countries. Viral infections cause multiple types of problems such as public health, economic and social ones. In addition, viruses can be spread fast beyond the regions and countries all over the world according to the movements of population. Although national quarantine systems have been established to solve these problems by countries, earlier actions on the novel virus were not satisfactory. IoT environment-based healthcare industry and IT convergence medical service industry have been continuously growing. Healthcare IT, which is the area to deal with information on the personal health and medical cares, devices, systems, and platforms, provides with personal healthcare services. In this article, information system on the virus infected territories is proposed using Internet of Medical Things (IoMT) environment. The proposed study is to establish the information system on the virus infected territories by IoMT-based monitoring of infection symptoms for early reactions against the viral infections. The system can be reacted proactively by detecting the risk factors of community spread from early detections of infected patients under the fast spread situation of viral diseases. The information system on the virus infected territories using IoMT environment can react to the spread of infectious diseases actively upon providing the information of infectious disease symptoms using user information. The proposed system can establish the integrative control system of viral diseases by the prediction module of community outbreak and spread of viral diseases.

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Section: Iomtmentioning

confidence: 99%

A Study On The Construction Of Virus Infection Area Information System Using Iomt Environment

Sim¹

2021

TURCOMAT

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“…Those nanomedicines technologies make use of (less invasive) nano-devices that can be implanted inside specific part of the body. This approach, finds several applications including cancer therapy, drug delivery, tissue engineering, and even bionics [4,5]. In particular, smart nanomaterials allow a combination of properties in terms of their architecture, size, shape, and surface functionalities that allow the development of efficient therapeutic applications.…”

Section: Introductionmentioning

confidence: 99%

Nanostructures in Nanomedicine: Critical Issues and Perspectives

Lombardo¹,

Calandra²,

Киселев³

2021

Proceedings of the 7th World Congress on New Technologies

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In the last decades the development of novel smart nanomaterials provide versatile tuneable platforms for the investigation and manipulation of several biological tasks with low invasiveness in tissues and biological systems. As a matter of fact, a large variety of smart integrated nanostructured systems have proven their effectiveness for various types of biomedical applications, including stimuli-responsive organic and metal nanoparticles as well as hybrid (organic/inorganic) nanostructures. These novel nanostructures allow the possibility to include a diagnostic imaging system with the monitoring of the temporal evolution of the response of the disease in patients. The development of integrated medical nano-devices, that includes early diagnostics functions, allow to attain advanced profiling of the health (and disease) of individual patient, thus providing new methods for personalized health monitoring and preventative medicine. However, although the good performance of these novel nano-platform against a large number of specific diseases, a number of inherent drawbacks and critical issues are still present. This circumstance limit their translation in the clinic experience. Much efforts are currently being directed at bridging the gap to put these smart nano-platforms into practice, by a deeper investigation of their safety, therapeutic efficacy, and a detailed understanding of their physico-chemical behaviour.

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