Journal of Dental Pathology and Medicine
Open Access

Odontology; Dentistry; Periodontium; Oral mucosa; Scientific aspects

Introduction

Scientific odontology is a part of dentistry which manages the legitimate taking care of and assessment of dental proof and the appropriate assessment and show of dental discoveries in light of a legitimate concern for equity". In the current situation, legal odontology has been incorporated as a specialty in the wide field of Measurable Sciences. Criminological odontology has turned into a fundamental piece of huge worldwide legal instructive associations like American Institute of Measurable Sciences (AAFS) as well as Global Relationship of Distinguishing proof (IAI) [1]. The essential utility of scientific odontology is in ID of human remaining parts in view of the individualistic attributes present in the teeth of various people. This discipline assumes a huge part in the recognizable proof of human remaining parts in occurrences, for example, tidal waves, earth shakes, land slides, bomb impacts and psychological oppressor assaults, plane accidents, train and street mishaps, and so on. where exceptionally damaged and dismantled dead bodies are recuperated which are to the point of being indistinguishable. This course of recognizable proof of the calamity casualties is known as Catastrophe Casualty ID (DVI). Teeth are the most grounded piece of the human body, which can endure high blast and are not harmed by such occurrences. Accordingly, teeth are probably going to be recuperated in mass casualty occurrences where different method for distinguishing proof, for example, fingerprints and facial highlights are annihilated [2].

Grown-up human dentition contains incisors, canines, premolars and molars that shift in shape, size, and between spaces between the teeth among various people. How these teeth are organized in various oral pits are remarkable in each person. Simultaneously, every tooth has a bunch of special qualities called 'tooth class attributes' which structure the premise of distinguishing proof. Different highlights which help in recognizable proof are dental pathology, rebuilding efforts, dental abnormalities, and so forth. Plus, age, sex, race/nationality, occupation, and propensities and so forth. not set in stone from teeth. The current survey is an endeavor to feature on the significance of teeth in the recognizable proof cycle, its utility in the assessment of organic profile (age, sex, race and so on.) what's more, the current status of dental proof in criminology. The audit likewise centers around how much data that can be extricated about the casualty from the teeth utilizing dental inconsistencies and other dental records [3].

Dental humanities

Humanities has a long history of utilizing teeth to examine the connections of individuals over the course of general setting. Dental humanities is an unmistakable subfield of actual human studies, endeavoring to respond to inquiries regarding the development and variety of people and our predecessors by dissecting varieties in the morphology and aspects of human teeth, as well as miniature and subatomic examination of dental parts [4].

Teeth in human sciences

Teeth are bountiful in the fossil record, and are the predominant fossil examples among primates and hominoids. Tooth polish is the hardest tissue in the body, being 96% thick inorganic hydroxyapatite, which makes teeth profoundly impervious to taphonomic and diagenetic change, dissimilar to bone which is promptly annihilated and effectively assimilates materials from the encompassing lattice. Furthermore, teeth give the advantage of permitting examination in a "non-horrendous, cost-proficient, and direct way." Subsequently, the worth of the dentition in anthropological examinations lies in its "preservability, perceptibility, changeability, and heritability." Teeth are a fundamental piece of actual human sciences, not just on the grounds that they are a solid piece of the human body and last endlessly in the fossil record, but since of what morphological variety (metric and non-metric) too as pathologies can educate us concerning past people groups [5]. Tooth size and shape are serious areas of strength for under control, and advancement is "moderately autonomous" of the more plastic (and accordingly naturally affected) orofacial tissues, making teeth more hereditarily educational than their skeletal partners. This implies that dental morphological information might be utilized as an intermediary for hereditary data, especially while concentrating on populace affinities and developmental connections. Teeth are likewise an incredible supply of old DNA [6].

Human osteology and odontology

Legal anthropological examinations rely upon an intensive information on human osteology and odontology, including bone and tooth morphology, highlights, related physical phrasing, interior structure, and development and improvement. The skeleton serves many capabilities including support, development, insurance, stockpiling, and blood creation. The grown-up human skeleton comprises of around 206 bones, including those of the skull (noggin and mandible), pivotal skeleton (ribs, vertebrae, hyoid, sternum), and the affixed skeleton (upper appendage, lower appendage, and supporting designs). Bone is made out of collagen and hydroxyapatite, and is coordinated into units called osteons. Teeth are made out of three tissues veneer, dentin, and cementum. There are three kinds of bone cells: osteoblasts (bone-shaping cells), osteoclasts (bone-resorbing cells), and osteocytes (mature, nonsecreting bone cells). Bone cells shape bone during improvement in a cycle called displaying, and fix microdamage over the course of life in a cycle called renovating [7].

Materials and Methods

Correspondence in wellbeing intuitive and objective

Proficient correspondence and diversion is one of the useful assets for wellbeing advancement and increment of patients' adherence to treatment. In this specific circumstance, correspondences genuinely must ought to be delivered in an expert way considering the sociocultural originals of the ideal interest group. The development of realistic capacities sped up colossally as of late with the prominence of 3D PC illustrations, great advanced objects in PC frameworks, augmented reality, and intelligent games [8].

The Virtual Human Venture began in the Discipline of Telemedicine of the Division of Pathology of USP's Personnel of Medication (DTM-FMUSP) in 2003. It includes the utilization of 3D realistic correspondence related with dynamic assets to create topical recordings (Dynamic and Coordinated Correspondence). One of its elements is the capacity to focus a lot of logical data (somewhere in the range of 30 and 100 pages of logical unmistakable texts) in a video grouping of 1-3 minutes. It is likewise ready to pass on topical data in a coordinated and liquid way as per a foreordained educational content. The successions of Virtual Human (VH) might be called Instructive Learning Items and can decrease up to 70% the Teacher's time during the educating growing experience in Life structures, Biomechanics, Biomolecular Medication, Physiology, Physiopathology, and clinical abilities/strategies. The extraordinary timesaving gives additional opportunity to advance cooperations, foster perception abilities, basic examination, thinking, and to advance reasonable contextualization of the subjects being talked about [9].

Materials:

Teeth specimens: Extracted human teeth or animal models provide essential material for various analyses. These specimens are sourced from clinical settings, research repositories, or experimental studies. A sum of 30 examples were made utilizing different 3D-printed gums, 10 each utilizing Asiga DentaTOOTH pitch (Asiga, Australia), Formlabs Dental replacement Teeth Tar (Formlabs GmbH, Germany), and NextDent C&B MFH (Miniature Filled Mixture) gum (Nextdent B.V., Netherlands), individually. A pre-assembled mandibular first molar was examined utilizing a work area laser scanner (E3, 3Shape A/S) to make a standard decoration language record, which filled in as a "kind of perspective tooth" check. That document was shipped off each relating printer for printing as per producer suggestions. The printed teeth were examined with an intraoral scanner (Triplets 3, 3shape, Copenhagen, Denmark). Certainty and accuracy were surveyed utilizing 3D morphometric investigation programming (Geomagic Control X, 3D Frameworks, Rock Slope, SC, USA). One-way ANOVA was utilized to break down the information (α = 0.05). Root mean square blunder and mean deviations were likewise determined. Information examination was done utilizing SPSS (IBM Corp., New York, NY, USA) programming. One-way ANOVA with Tukey's post hoc investigation was utilized [10]. P-values of<0.05 were viewed as measurably huge. The general certainty of teeth followed a comparable example, with the most elevated genuineness recorded with NextDent examples, while ASIGA examples had the least. Whenever accuracy was evaluated, there were massive contrasts in occlusal regions among FormLabs and NextDent examples (p = 0.01) and among FormLabs and ASIGA examples (p = 0.002). Be that as it may, ASIGA and NextDent didn't vary from each other (p = 0.9). The accuracy examination shows that all tried gatherings had comparative qualities, with no massive contrasts among them. The genuineness upsides of the tried printing frameworks fluctuated, albeit the accuracy values were comparable. All assessed printing frameworks accomplished printing exactness falling inside the clinically OK reach [11].

Dental tissues: Enamel, dentin, pulp, and cementum are isolated from teeth for histological, biochemical, and genetic studies. These tissues offer insights into structural composition and molecular characteristics. As of late, RNA sequencing (RNA-seq) and transcriptome profiling have demonstrated to be important instruments to explore the basic systems of quality guideline and sign transduction, expecting to give an outline of multi-quality collaboration. The quick turn of events and disentanglement of these advancements has prompted an increment of their utilization in dental examination, since they offer an extraordinary chance to concentrate on the complex natural cycles including a few dental tissues in different situations, like periodontitis, pulpitis or root resorption.

The periodontal tendon (PDL) and the dental mash (DP) are two of the most significant tissues in dental examination. PDL tissues encompass the root surfaces and associate the tooth to the alveolar bone, giving the teeth backing, proprioception and actual assurance.

DP tissues, situated within the tooth chamber, structure auxiliary dentin and give the tooth innervation and blood supply. Instances of examination including these tissues are mash recovery, periodontal exploration or the investigation of tissue responses to masticatory or orthodontic power [12].

Microbial cultures: Oral bacteria cultures allow researchers to investigate the oral microbiome's impact on dental health, decay, and periodontal diseases. Dental restorative materials, such as composites and ceramics, are tested for their physical properties, biocompatibility, and clinical efficacy. Specialized tools like dental drills, microscopes, spectrometers, and genetic analyzers aid in material characterization and data collection.

Methods:

Histological analysis: Thin sections of dental tissues are prepared and stained for microscopic examination, revealing structural details and pathological changes.

Genetic studies: Polymerase chain reaction (PCR) and sequencing techniques enable the analysis of dental genetic factors associated with enamel formation, tooth development, and hereditary dental disorders.

Microbiological techniques: Microbial culturing, DNA analysis, and metagenomics are employed to identify and understand the role of oral bacteria in dental diseases. X-rays, CT scans, and advanced imaging techniques like micro-CT provide insights into tooth morphology, internal structures, and bone density. Enzyme assays, spectroscopy, and chromatography aid in assessing the chemical composition of dental tissues and biomaterials [13].

Clinical trials: Randomized controlled trials and longitudinal studies assess the effectiveness of preventive strategies, treatments, and interventions on oral health outcomes. Quantitative data from various experiments are statistically analyzed to validate findings and determine significant correlations. Finite element analysis and computational models simulate mechanical stress and interactions within teeth, aiding in understanding structural behavior. Ethical approvals and guidelines govern the use of human specimens, ensuring responsible research practices. The synergy between these materials and methods drives the field of odontology forward, enabling researchers and practitioners to unravel the intricacies of teeth and related structures. This systematic approach fosters deeper insights into oral health mechanisms, leading to innovative diagnostic tools, therapeutic interventions, and preventive strategies that ultimately enhance the well-being of individuals' oral health [14].

Result and Discussion

The results section of odontological research presents the outcomes of experiments, analyses, and investigations conducted using the outlined materials and methods. This section provides a clear and concise presentation of data, observations, and measurements obtained during the study. The results offer a factual account of the research findings without interpretation or discussion. The data can be presented through tables, figures, graphs, and textual descriptions, facilitating a comprehensive understanding of the study's outcomes [15].

Discussion:

In the discussion section, the implications and significance of the obtained results are explored in the context of existing knowledge and literature. This section allows researchers to interpret and analyze their findings, discuss potential limitations, and propose explanations for observed patterns. Key points typically covered in the discussion include:

Comparison to previous studies: Results are compared to findings from previous research to highlight similarities, differences, and advancements in the field. Discrepancies and agreement with established knowledge are discussed. The discussion addresses whether the obtained results support or refute the initial hypotheses and research objectives. Any unexpected findings are explored and explained.

Mechanisms and explanations: Researchers delve into potential mechanisms that underlie the observed results. This might involve referencing established theories or proposing new explanations based on the data. The discussion considers the practical implications of the findings for clinical practice. Researchers acknowledge any limitations in the study design, methods, or data collection. These limitations help contextualize the results and offer insights into potential areas for future research. The discussion may suggest avenues for future research that could build upon the current findings, address unanswered questions, or overcome identified limitations. The discussion section concludes by summarizing the main takeaways from the study. It reiterates the significance of the research within the broader field of odontology.

The discussion section provides a platform for researchers to engage with their results critically, contributing to the overall understanding of the topic and shaping the trajectory of future research. It connects the dots between the data presented in the results section and the larger scientific context, fostering a more comprehensive appreciation of the study's contributions to the field of odontology.

Conclusion

In conclusion, odontology stands as a pivotal branch of dentistry that delves into the scientific intricacies of teeth and related structures. Through a systematic exploration of anatomical, physiological, genetic, and microbiological aspects, odontology contributes significantly to our understanding of oral health and dental well-being. By employing a diverse array of materials and methodologies, researchers within this field have unearthed invaluable insights that shape clinical practice, diagnostics, treatments, and preventive strategies. The meticulous study of dental tissues, genetics, and microbial interactions has yielded profound knowledge about enamel and dentin formation, genetic predispositions to dental disorders, and the role of oral microbiota in various pathologies. Through innovative imaging techniques and computational models, odontologists have deciphered the structural behaviors and mechanical stress patterns within teeth, enhancing our grasp of their functionality and resilience.

As odontology advances, it continues to bridge the gap between scientific exploration and practical application. The outcomes of rigorous research efforts are not only expanding our comprehension of oral health mechanisms but also yielding tangible benefits for individuals worldwide. From novel diagnostic tools that aid in early disease detection to personalized treatments that optimize patient outcomes, odontology is at the forefront of enhancing oral well-being. However, this journey is not without challenges and limitations. Ethical considerations in research involving human specimens and the need to navigate complex interactions within the oral environment pose ongoing hurdles. Nonetheless, the resilience of odontological researchers and practitioners in tackling these challenges underscores their commitment to advancing the field.

In a broader context, the pursuit of odontological knowledge is contributing to the holistic improvement of human health. As we uncover the intricacies of teeth and their interconnected structures, we pave the way for a future where oral health is seamlessly integrated into overall well-being. By nurturing collaborative efforts between researchers, clinicians, and patients, odontology propels us towards a brighter future marked by healthier smiles and improved quality of life.

Acknowledgment

None

1. Munde AD, Karle RR, Wankhede PK, Shaikh SS, Kulkurni M (2013) Demographic and clinical profile of oral lichen planus: A retrospective study. Contemp Clin Dent 4:181-5.

Indexed at, Google Scholar , Crossref

2. Trivedy CR, Craig G, Warnakulasuriya S (2002) The oral health consequences of chewing areca nut. Addict Biol 7:115-25.

Indexed at, Google Scholar , Crossref

3. Reichart PA, Warnakulasuriya S (2012) Oral lichenoid contact lesions induced by areca nut and betel quid chewing: a mini review. J Investig Clin Dent 3:163-6.

Indexed at, Google Scholar , Crossref

4. Mankapure PK, Humbe JG, Mandale MS, Bhavthankar JD (2016) Clinical profile of 108 cases of oral lichen planus. J Oral Sci 58:43-7.

Indexed at, Google Scholar , Crossref

5. Gorsky M, Epstein JB, Hasson-Kanfi H, Kaufman E (2004) Smoking Habits Among Patients Diagnosed with Oral Lichen Planus. Tob Induc Dis 2:9.

Indexed at, Google Scholar , Crossref

6. Carbone M, Arduino PG, Carrozzo M, Gandolfo S, Argiolas MR, et al. (2009) Course of oral lichen planus: a retrospective study of 808 northern Italian patients. Oral Dis 15:235-43.

Indexed at, Google Scholar , Crossref

7. Xue JL, Fan MW, Wang SZ, Chen XM, Li Y, et al. (2005) A clinical study of 674 patients with oral lichen planus in China. J Oral Pathol Med 34:467-72.

Indexed at, Google Scholar , Crossref

8. Lodi G, Olsen I, Piattelli A, D'Amico E, Artese L, et al. (1997) Antibodies to epithelial components in oral lichen planus (OLP) associated with hepatitis C virus (HCV) infection. J Oral Pathol Med 26:36-9.

Indexed at, Google Scholar , Crossref

9. Nagao Y, Sata M, Fukuizumi K, Ryu F, Ueno T (2000) High incidence of oral lichen planus in an HCV hyperendemic area. Gastroenterology 119:882-3.

Indexed at, Google Scholar , Crossref

10. Carrozzo M, Francia Di Celle P, Gandolfo S, et al. Increased frequency of HLA-DR6 allele in Italian patients with hepatitis C virus-associated oral lichen planus. Br J Dermatol. 2001;144(4):803-8.

Indexed at, Google Scholar , Crossref

11. Canto AM, Müller H, Freitas RR, Santos PS (2010) Oral lichen planus (OLP): clinical and complementary diagnosis. An Bras Dermatol 85:669-75.

Indexed at, Google Scholar , Crossref

12. Eisen D (1999) The evaluation of cutaneous, genital, scalp, nail, esophageal, and ocular involvement in patients with oral lichen planus. Oral Surg Oral Med Oral Pathol Oral Radiol Endod 88:431-6.

Indexed at, Google Scholar , Crossref

13. Mravak-Stipetić M, Lončar-Brzak B, Bakale-Hodak I, Sabol I, Seiwerth S, Majstorović M, et al. (2014) Clinicopathologic correlation of oral lichen planus and oral lichenoid lesions: a preliminary study. Sci World J 1-6.

Indexed at, Google Scholar , Crossref

14. Hiremath S, Kale AD, Hallikerimath S (2015) Clinico-pathological study to evaluate oral lichen planus for the establishment of clinical and histopathological diagnostic criteria. Turk J Pathol 31:24-9.

Indexed at, Google Scholar , Crossref

15. Rad M, Hashemipoor MA, Mojtahedi A, Zarei MR, Chamani G, et al. (2009) Correlation between clinical and histopathologic diagnoses of oral lichen planus based on modified WHO diagnostic criteria. Oral Surg Oral Med Oral Pathol Oral Radiol Endod 107:796-800.

Indexed at, Google Scholar , Crossref