IoT Enabled Design of an Analog-front End for the In-vitro Tooth Cavity pH sensor and Testing under Laboratory Conditions

Main Article Content

Payal Ghutke Wani Patil

Abstract

The tooth's pH has an impact on the tooth cavity, which mostly develops as a result of cariogenic bacteria interacting with the carbohydrates in meals. For this purpose, pH sensor has been developed along with the in-house developed analog front end. Developed pH sensor shows change in the resistance when exposed to the tooth’s pH. This change in the resistance is measured with the help of a voltage divider circuit followed by a unity gain buffer. Unity gain buffer is used to avoid the loading effect. Further, the output of and buffer is given to the microcontroller and subsequently to an ESP module for Internet of Things (IoT) communication

Article Details

Section
Articles
Author Biography

Payal Ghutke Wani Patil

[1]Payal Ghutke

2Wani Patil

 

[1]Ph.D. Research Scholar, Department of Electronics & Telecommunication Engineering, G H Raisoni University, Amravati, India

payal.ghutke@raisoni.net

2Assistant Professor, Department of Electronics Engineering, G H Raisoni College of Engineering, Nagpur, India

wani.patil@raisoni.net

 

References

Poul Erik Petersen, Denis Bourgeois, Hiroshi Ogawa, Saskia Estupinan-Day, Charlotte Ndiaye (2005), “The global burden of oral diseases and risks to oral health,” Bulletin of the world health organization, vol. 83, pp. 661-669.

Pitts, Nigel B., “et al.” (2017), “Dental caries,” Nature reviews Disease primers, vol. 3.1 pp. 1-16.

A F Paes Leme, H Koo, C M Bellato, G Bedi, J A Cury (2006), “The role of sucrose in cariogenic dental biofilm formation—new insight,” Journal of dental research, vol. 85, pp. 878-887.

Selwitz, Robert H., Amid I. Ismail, and Nigel B. Pitts (2007 ),“Dental caries”, The Lancet, vol. 369, pp. 51-59.

Pitts, Nigel B. (2001), “Clinical diagnosis of dental caries: a European perspective,” Journal of Dental Education vol. 65 pp. 972-978,

Ismail, A. I. J. (2004), “Visual and visuo-tactile detection of dental caries,” vol. 83, pp. 56-66.

Ekstrand, Kim, V. Qvist, and A. Thylstrup (1987), “Light microscope study of the effect of probing in occlusal surfaces,” Caries research, vol. 21, pp. 368-374.

K W Neuhaus, R Ellwood, A Lussi, N B Pitts (2009), “Traditional lesion detection aids,” Detection, assessment, diagnosis and monitoring of caries, vol. 21, pp. 42-51.

Juliana Mattos-Silveira, Marina Monreal Oliveira, Ronilza Matos, Cacio Moura-Netto, Fausto Medeiros Mendes, and Mariana Minatel Braga (2016), “Do the ball-ended probe cause less damage than sharp explorers?—An ultrastructural analysis,” BMC oral health, vol. 16, pp. 1-7.

D N Ricketts, E A Kidd, B G Smith, R F Wilson (1995), “Clinical and radiographic diagnosis of occlusal caries: a study in vitro,” Journal of Oral Rehabilitation, vol. 22, pp. 15-20.

Wenzel, A. (1998), “Digital radiography and caries diagnosis,” Dentomaxillofacial Radiology, vol. 27, pp. 3-11.

Pretty, Iain A. (2006), “Caries detection and diagnosis: novel technologies,” Journal of dentistry, vol. 34, pp. 727-739.

Igarashi, K., I. K. Lee, and C. F. Schachtele (1989), “Comparison of in vivo human dental plaque pH changes within artificial fissures and at interproximal sites,” Caries research, vol. 23, pp. 417-422.

A Smit, M Pollard, P Cleaton-Jones, A Preston (1997), “A comparison of three electrodes for the measurement of pH in small volumes,” Caries research, vol. 31, pp. 55-59.

A Lussi, S Imwinkelried, N Pitts, C Longbottom, E Reich (1999), “Performance and reproducibility of a laser fluorescence system for detection of occlusal caries in vitro,” Caries research, vol. 33, pp. 261-266.

Gen Mayanagi, Koei Igarashi, Jumpei Washio, Nobuhiro Takahashi (2017), “pH response and tooth surface solubility at the tooth/bacteria interface,” Caries research, vol. 51.2, pp. 160-166.

Thompson, F. Clarence, and Finn Brudevold (1954), “A micro-antimony electrode designed for intraoral pH measurements in man and small experimental animals,” Journal of Dental Research, vol. 33.6, pp. 849-853

I Kleinberg, G N Jenkins, R Chatterjee, L Wijeyeweera (1982), “The antimony pH electrode and its role in the assessment and interpretation of dental plaque pH,” Journal of Dental Research, vol. 61, pp. 1139-1147.

Noriko Hiraishi, Yuichi Kitasako, Toru Nikaido, Satoshi Nomura, Michael F Burrow, Junji Tagami (2003), “Effect of artificial saliva contamination on pH value change and dentin bond strength”, Dental Materials, vol. 19, pp. 429-434.

Keiko Murakami, Yuichi Kitasako, Michael F Burrow, Junji Tagami (2006), “In vitro pH analysis of active and arrested dentinal caries in extracted human teeth using a micro pH sensor,” Dental materials journal, vol. 25, pp. 423-429

Yuichi Kitasako, Nathan J Cochrane, Matin Khairul, Kanako Shida, Geoffrey G Adams, Michael F Burrow, Eric C Reynolds, Junji Tagami (2010), “The clinical application of surface pH measurements to longitudinally assess white spot enamel lesions,” Journal of dentistry, vol. 38, pp. 584-590

Mie Fujii, Yuichi Kitasako, Alireza Sadr, Junji Tagami (2011), “Roughness and pH changes of enamel surface induced by soft drinks in vitro-applications of stylus profilometry, focus variation 3D scanning microscopy and micro pH sensor,” Dental materials journal, vol. 30, pp. 404-410.

Patle, Kamlesh S., Hemen K. Kalita, and Vinay S. Palaparthy (2022), “Reduced Graphene Oxide Soil Moisture Sensor with Improved Stability and Testing on Vadose Zone Soils,” Artificial Intelligence Driven Circuits and Systems. Springer, Singapore, pp. 115-123.

Chindanai Ratanaporncharoen, Miyuki Tabata, Yuichi Kitasako, Masaomi Ikeda, Tatsuro Goda, Akira Matsumoto, Junji Tagami, Yuji Miyahara (2018), “pH mapping on tooth surfaces for quantitative caries diagnosis using micro Ir/IrOx pH sensor,” Analytical chemistry, vol. 90 pp. 4925-4931.

Cooper, R., & Harrison, A. (2009). The exposure to and health effects of antimony. Indian Journal of Occupational and Environmental Medicine, 13(1), 3.

Wang, M., Yao, S., & Madou, M. (2002). A long-term stable iridium oxide pH electrode. Sensors and Actuators B: Chemical, 81(2-3), 313–315.

https://www.mathworks.com/help/supportpkg/arduino/ref/wifithingspeakwrite.html

Ghutke, P. & Patil, W.(2024). In-Vitro Detection of Tooth Decay Using Reduced Graphene Oxide (rGO) based Sensor. International Journal of Intelligent Systems and Applications in Engineering, 12(17s), 177–183.