Faculty Publications

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Scholarly Publications by Integral Academia

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Subject: search.filters.subject.Aerospace Engineering

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    FBG Sensor Applications in Aerospace Engineering
    (Springer Singapore, 2025) Archana Yadav; V. R. Balaji, M. A. Ibrar Jahan, Gaurav Kumar Bharti, Srujana, and Rajini V. Honnungar
    Fiber Bragg grating (FBG) sensors have emerged as a preferred choice in various industries, including telecommunications, civil, aerospace, and automotive, for monitoring various parameters due to the advancements in fiber optic technology. They possess exceptional qualities, including outstanding sensitivity, flexibility, lightweight, multiplexing, and immunity to electromagnetic interference. FBG sensors are an exemplary choice for aerospace engineering applications that require remote detection, high precision, and lightweight design. These sensors leverage changes in fiber properties caused by perturbations like polarization, strain or temperature etc. When these perturbations occur, they either alter grating pitch or modal index, resulting in a relative resonance wavelength shift. Measuring this shift enables the detection and quantification of physical changes, yielding essential data for structural integrity evaluations. This chapter covers the utilization of FBG sensors for monitoring the structural health in aircrafts/ Avionics industry. It also covers the case studies that emphasize using FBG for Structural Health Monitoring (SHM) in aircraft, showcasing their efficacy in practical situations. It also illustrates how SHM can contribute to safer, more efficient operations in aerospace engineering.
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    Exploring the Transformative Potential of Hybrid Nanoparticles in Biomedical Applications: Relevance of Hybrid Nanoparticles
    (IGI Gobal, 2024) Faria Fatima
    Hybrid nanoparticles are nanoscale particles that are composed by interaction between the different components, resulting in enhanced properties that can be harnessed for wide range of application across fields like medicine, electronics energy, and more. These nanoparticles are typically in the size range from 1-100 nanometers, which is advantageous. Because at this scale, they often exhibit novel behavior due to their quantum and surface effects. The choice of material and the way they are combined can be tailored to achieve specific goals. For example, in biomedical applications, hybrid nanoparticles can be engineered to have specific targeting abilities such as targeted drug delivery, theranostics, gene therapy, phototherapy, tissue regeneration, vaccines, antibacterial, biomolecules detection, imaging probes, tissue engineering, biosensing, and cancer treatment. They have enhanced qualities with increased target specificity and sensitivity, extended circulation times, and resistance to biological barriers.