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Chapter 3
Recent Advancements inDeveloping
Nanobiosensors forTreating Inammatory
Diseases ofHuman: AComprehensive
Overview
AnkitaChakraborty , SaubhikMitra , MoytreyChatterjee ,
AbhijitDey , andSuprabhatMukherjee
Abstract Nanobiosensor has been the major advantageous modication of conven-
tional biosensing devices for meeting the needs of advanced diagnosis and treatment
of several complicated human diseases nowadays. Fabrication of bioactive molecules (enzymes, antibodies, etc.) and micro-organisms with nanoparticles, nanocomposites and other miniaturized nanomaterials has been the key in developing efcient
nanobiosensors. The major aim behind using nanomaterials and developing sensing
device is to upgrade the sensing ability of the conventionally used biosensors.
Hitherto, the available biosensing devices require higher quantities of samples which
is a tough task to meet for many of the complex infectious and inammatory diseases like neurodegenerative diseases, fatty liver diseases, intracellular infections,
etc. Nanobiosensors seem to be the solution for this limitation with higher degree of
sensing efcacy, higher level of accuracy and reduced noise. In this context, biotribology of nanomaterial-biomolecule/enzyme interactions could provide substantial
Saubhik Mitra is working as guest faculty at Department of Animal Science, Kazi Nazrul
University.
A. Chakraborty · S. Mukherjee (*)
Integrative Biochemistry and Immunology Laboratory (IBIL), Department of Animal
Science, Kazi Nazrul University, Asansol, West Bengal, India
e-mail: suprabhat.mukherjee@knu.ac.in
S. Mitra
Department of Health and Family Welfare, Government of West Bengal, Santipur Block,
Nadia, West Bengal, India
M. Chatterjee
Department of Life Sciences, Presidency University, Kolkata, West Bengal, India
A. Dey
Integrative and Immunology Laboratory (IBIL), Department of Animal Science,
Kazi Nazrul University, Asansol, West Bengal, India
e-mail: abhijit.dbs@presiuniv.ac.in
A. Kumar et al. (eds.), Applications of Biotribology in Biomedical Systems,
https://doi.org/10.1007/978-3-031-58327-8_3
79© The Author(s), under exclusive license to Springer Nature Switzerland AG 2024
80
A. Chakraborty et al.
knowledge in improving the efcacy of the developed sensors. In this chapter, recent
advancement in the eld of nanobiosensor developments with a special emphasis on
the biotribological aspects and their potential application for diagnosing complicated human inammatory diseases have been discussed by reviewing the pathbreaking discoveries, literatures and available information in various databases.
Keywords Infectious disease · Lifestyle-related disease · Nanobiosensor ·
Biomarker · Electrochemical nanobiosensor · Optical nanobiosensor
Abbreviations
AD Alzheimer’s disease
AgNP Silver nanoparticle
APC Adenomatous polyposis coli
Apt-MB Magnetic-bead modied aptamer
AuDENP Dendrimer-entrapped gold nanoparticles
AuNC/MWCNT-NH2 Gold nanocage coupled with multiwalled carbon nanotube
AuNI Gold nanoislands
AuNP Gold nanoparticle
BBB Blood-brain barrier
CNT Carbon nanotubes
CSF Cerebrospinal uid
DAAPT DA-DNA aptamer
DPV Differential pulse voltammetry
EEG Electroencephalography
ELISA Enzyme-linked immunosorbent assay
EMG Electromyography
FET Field effect transistor
FRET Fluorescence resonance energy transfer
Gem Gemcitabine
HBV Hepatitis B virus
HIV Human immunodeciency virus
hTERT Human telomerase reverse transcriptase
LFA Lateral ow assay
lncRNA Long non-coding RNA
MAGE Melanoma-associated antigens
miR-21i miR-21 inhibitor
NCD Non-communicable diseases
ND Neurodegenerative diseases
NGF Nerve growth factor
NM Nanomaterials
NP Nanoparticles
PANI Polyaniline
3 Recent Advancements in Developing Nanobiosensors for Treating Inammatory…
PAR Plasminogen activator receptor
PC Photonic crystals
PD Parkinson’s disease
PFF Preformed brils
PfHRF Plasmodium falciparum histidine-rich protein
pLDH Parasite lactate dehydrogenase
PPT Plasmonic photothermal
SERS Surface enhanced Raman scattering
SN Substantia nigra
SNpc Substantia nigra pars compacta
SPCE Screen-printed carbon electron
SPR Surface plasmon resonance
SQUID Superconducting quantum interference devices
SWCNT Single-walled carbon nanotubes
TB Tuberculosis
VLP-1 Visinin-like protein 1
VNTR Variable number of tandem repeats
Ankita Chakraborty, Saubhik Mitra and Moytrey Chatterjee
contributed equally with all other contributors.
3.1 Introduction
81
Non-communicable diseases (NCDs) signicantly contribute to global burden of
morbidity and nearly 72% of worldwide death [1]. Persistent low-grade inammation with rise in serum pro-inammatory cytokine is associated with the development of different NCDs, including cardiometabolic diseases, different form of
cancers, respiratory and auto-immune disorders [2, 3]. For control of these diseases,
early diagnosis is pivotal [4]. Although microscopy, ELISA and other conventional
methods of diagnosis act as the gold standard but low specicity, long test time and
lack of standardization are the obstacles that can be overcome using biosensor that
is relatively quick and biocompatible [5, 6].
Biosensor is an integrated electronic receptor–transducer device which can be
used for quantitative or semi-quantitative analytical detection of biomarker (specic
for disease condition) with maximum accuracy in minimum time. Biosensors are
generally afnity-based and signal transducers determine the extent of the binding
reaction and relay this information in a variety of methods, like uorescence, electric signal [7]. Today, biosensor is capable of delivering more precision, sensitivity
and rapid, multiplicative outcomes compared to previous conventional biosensors
[8]. The signal transduction is mainly based on changes in the physiochemical properties resulting from sensing the bioanalyte. Because of presence of diverse types of
analytes in a disease condition, high afnity of biorecognition molecules for their
target allows the biosensor to work effectively. In recent years, apart from the