Nanoinformatics: Why Design of Projects on Nanomedicine Development and Clinical Applications may fail?

Nwankwo, Wilson; Olayinka, Akinola Samson; Ukhurebor, Kingsley Eghonghon

doi:10.1109/icmcecs47690.2020.246992

Cited by 11 publications

(4 citation statements)

References 19 publications

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“…Medical/Health Applications: Some of the medical/health benefits of WSNs are in the areas of diagnostics, investigative, and drug administration as well as management, supporting interfaces for the incapacitated, integrated patient monitoring and management, tele-monitoring of human physiological information, and tracking and monitoring medical practitioners or patients inside the medical facility. According to Nwankwo et al [22] nanoinformatics and nanomedicine are now beginning to advance in clinical applications via the use of biosensors.…”

Section: Applications Of Wireless Sensor Network (Wsns)mentioning

confidence: 99%

Wireless Sensor Networks: Applications and Challenges

Ukhurebor¹,

Odesanya²,

Tyokighir³

et al. 2021

Wireless Sensor Networks - Design, Deployment and Applications

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Wireless sensor networks (WSNs) allow innovative applications and involve non-conventional models for the design of procedures owing to some limitations. Due to the necessity for low device complication and low consumption of energy, an appropriate equilibrium among communication and signal processing abilities should be instituted. This stimulates an enormous effort in research actions, standardisation procedure, as well as manufacturing investments on this aspect since the preceding years. Therefore, this chapter aims at presenting a summary of WSNs machineries, foremost applications and values, structures in WSNs project, and the developments drawn from some evidence and meta-data-based survey and assessments. Precisely, some applications, such as those based on ecological monitoring, and design approaches that emphasise a real implementation are discussed briefly. The trends and conceivable developments are outlined. Emphasis is given to "the Institute of Electrical and Electronics Engineers (IEEE) 802.15.4 technology" that enables several applications of WSNs. Hence, it is anticipated that this chapter would serve as an introductory aspect on the applications and challenges of WSNs for persons interested in WSNs.

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Section: Applications Of Wireless Sensor Network (Wsns)mentioning

confidence: 99%

Wireless Sensor Networks: Applications and Challenges

Ukhurebor¹,

Odesanya²,

Tyokighir³

et al. 2021

Wireless Sensor Networks - Design, Deployment and Applications

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“…Environmental effluences ensuing as a result of the annihilation of the aquatic, terrestrial, and atmospheric ecosystems by the fast and aggressive increase in industrial activities and the global population are critical to the existence of man and other living organisms as well as the sustenance of the ecosystem [1][2][3][4][5][6][7][8][9][10]. According to several research reports, these environmental effluences have extremely affected the quality of water due to the untreated wastes being disposed of, released, or discharged into the aquatic environments, mostly by industries via the production processes of textiles, paper, leather, petroleum, and paint, as well as metal plating, mining, and other industrial production processes [11,12], consequently, contributing immensely to climate change and global warming [13][14][15], health complications [16][17][18], food shortage (agricultural shortfall) [19][20][21], etc.…”

Section: Introductionmentioning

confidence: 99%

Adsorption of methylene blue (MB) dye on ozone, purified and sonicated sawdust biochars

Eldeeb

Aigbe

Ukhurebor

et al. 2022

Biomass Conv. Bioref.

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The synthesized biochars derived from sawdust (SD) SD ozone (SDO) biochar, purified SD (PSD) biochar, and sonicated SD (SSD) biochar, which was employed in the confiscation of methylene blue (MB) dye ion, were characterized employing “Brunauer–Emmett–Teller (BET), scanning electron microscope (SEM), Fourier Transform Infrared (FTIR), and Thermal gravimetrical analysis (TGA).” The impact of various factors, such as pH, biochar dosage, and initial concentration, on MB dye sequestration, was tested in this study. It was found that the biosorption of MB dye to the various biochars was dependent on the solution pH, with optimum confiscation of MB observed at pH 12 for all biochars. Pseudo-second-order (PSO), Freundlich (FRH)- (SDO and SSD biochars), and Langmuir (LNR)- (PSD biochar) models were used to best describe the biosorption process of MB dye to various biochars. Based on the LNR model fitting to the experimental data, the optimum sorption capacities obtained using SDO, SSD, and PSD biochars were 200, 526, and 769 mg/g, respectively. Electrostatic interaction and hydrogen bonding played an important role in the interaction mechanism between the various biochars and MB dye. Hence, these studied SDO, PSD, and SSD biochars prepared from cheap, easily accessible, biodegradable, and non-hazardous agro-waste materials can be effectively used for the removal, treatment, and management of MB dye as well as other industrial effluents before their disposal into the environment.

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“…Over the years, several categories and subcategories of BioSS/NanoBioSS have been developed with vast applications (see Figure 2 for some of the main categories and subcategories of BioSS/NanoBioSS). Notwithstanding the effectiveness of most BioSS, there are still some reported limitations such as meagre selectivity, the influence of the charged constituent parts (particles) mostly in the form of interference, deficiency in the surface designs, and vulnerability to some environmental (ecological) interference [ 19 , 44 – 46 ]. But with the evolutions of NanoTech (whose main concept deals with the execution of BMs or NPs, with an operational dimension of below 100 nm, in handling materials at the microscopic level [ 47 ]), some of these reported limitations are now been effectively moderated.…”

Section: Introductionmentioning

confidence: 99%

A Methodical Review on the Applications and Potentialities of Using Nanobiosensors for Disease Diagnosis

Ukhurebor

Onyancha

Aigbe

et al. 2022

BioMed Research International

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Presently, with the introduction of nanotechnology, the evolutions and applications of biosensors and/or nanobiosensors are becoming prevalent in various scientific domains such as environmental and agricultural sciences as well as biomedical, clinical, and healthcare sciences. Trends in these aspects have led to the discovery of various biosensors/nanobiosensors with their tremendous benefits to mankind. The characteristics of the various biosensors/nanobiosensors are primarily based on the nature of nanomaterials/nanoparticles employed in the sensing mechanisms. In the last few years, the identification, as well as the detection of biological markers linked with any form of diseases (communicable or noncommunicable), has been accomplished by several sensing procedures using nanotechnology vis-à-vis biosensors/nanobiosensors. Hence, this study employs a systematic approach in reviewing some contemporary developed exceedingly sensitive nanobiosensors alongside their biomedical, clinical, or/and healthcare applications as well as their potentialities, specifically for the detection of some deadly diseases drawn from some of the recent publications. Ways forward in the form of future trends that will advance creative innovations of the potentialities of nanobiosensors for biomedical, clinical, or/and healthcare applications particularly for disease diagnosis are also highlighted.

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Nanoinformatics: Why Design of Projects on Nanomedicine Development and Clinical Applications may fail?

Cited by 11 publications

References 19 publications

Wireless Sensor Networks: Applications and Challenges

Wireless Sensor Networks: Applications and Challenges

Adsorption of methylene blue (MB) dye on ozone, purified and sonicated sawdust biochars

A Methodical Review on the Applications and Potentialities of Using Nanobiosensors for Disease Diagnosis

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