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. 2013 Aug 18;2013:956269. doi: 10.1155/2013/956269

Natal and Neonatal Teeth: An Overview of the Literature

Shubhangi Mhaske 1, Monal B Yuwanati 1,*, Ashok Mhaske 2, Raju Ragavendra 1, Kavitha Kamath 1, Swati Saawarn 1
PMCID: PMC3759256  PMID: 24024038

Abstract

The occurrence of natal and neonatal teeth is an uncommon anomaly, which for centuries has been associated with diverse superstitions among different ethnic groups. Natal teeth are more frequent than neonatal teeth, with the ratio being approximately 3 : 1. It must be considered that natal and neonatal teeth are conditions of fundamental importance not only for a dental surgeon but also for a paediatrician since their presence may lead to numerous complications. Early detection and treatment of these teeth are recommended because they may induce deformity or mutilation of tongue, dehydration, inadequate nutrients intake by the infant, and growth retardation, the pattern and time of eruption of teeth and its morphology. This paper presents a concise review of the literature about neonatal teeth.

1. Introduction

Natal teeth are teeth present at birth, and “neonatal teeth” are teeth erupted within the first month of life. Premature eruption of a tooth at the time of birth or too early is combined with many misconceptions. They are further accompanied by various difficulties, such as pain on suckling and refusal to feed, faced by the mother and the child due to the natal tooth/teeth. Some families are so superstitious that the afflicted child may be deprived of parental love. The family hopes that the offending teeth be removed as soon as possible.

Natal and neonatal teeth have been a subject of curiosity and study since the time it was first documented by Titus Livius, in 59 BC. Gaius Plinius Secundus (the Elder), in 23 BC, believed that a splendid future awaited male infants with natal teeth. In some countries, the child is considered to be monstrous and bearer of misfortune for example. As per Chinese tradition it is considered as a bad omen for girls [1].

2. Terminology and Synonyms

Dentitia praecox, dens connatalis, congenital teeth, fetal teeth, infancy teeth, predeciduous teeth, and precocious dentition are some of the terminologies used previously [1, 9, 12, 21, 65]. Lack of specificity and accuracy in description of the condition leads to subsequent discontinuity of these terms. The analogous terms of “natal” and “neonatal” teeth described by Massler and Savara are now most accepted [4]. These terms broadly describe the teeth that are erupted at birth or shortly thereafter. Although these terms only define the time of eruption and give no hint whether the tooth is a component of primary dentition or whether it is supernumerary, newer synonyms should be explored.

3. Proposed Classifications

The natal and neonatal teeth that do not confirm the criteria described for them and erupt within one to three and a half months are called early infancy teeth [66]. Few authors have tried to resolve the controversies in such cases. Spouge and Feasby [66] in 1966 classified, the natal & neonatal tooth on the basis of developmental stages whereas, Hebling et al. in 1997 classified according to the appearance of each natal tooth into the oral cavity [67, 68] (Table 1).

Table 1.

Prevalence of neonatal and natal teeth in different populations and studies.

Authors Prevalence Number of children in the sample
Magitot, 1876 [2] 1 : 6000 17,578
Puech, 1876 1 : 30000 60,000
Ballantyne, 1896 [3] 1 : 6000 17,578
Massler and Savara, 1950 [4] 1 : 2000 6,000
Allwright, 1958 [5] 1 : 3408 6,817
Bodenhoff, 1959 [6] 1 : 3000
Wong, 1962 [7] 1 : 3000
Bodenhoff and Gorlin, 1963 [8] 1 : 3000
Mayhall, 1967 [9] 1 : 1125 90
Chow, 1980 [10] 1 : 2000 to 3500
Anderson, 1982 [11] 1 : 800
Kates et al., 1984 [12] 1 : 3667 7,155
Leung, 1986 [13] 1 : 3392 50,892
Bedi and Yan, 1990 [14] 1 : 1442
Rusmah, 1991 [15] 1 : 2325 9,600
To, 1991 [16] 1 : 1118 53,678
De Almeida and Gomide,
1996 [17]
1 : 21.6 1,019
Alaluusua et al.,* 2002 [18] 1 : 1000 34,457 (1997–2000)
El Khatib et al., 2005 [19] 1 : 3400 17000 (1984 and 2001)

*Exposed to toxin Finnish population-correlation with exposure to toxin and prevalence of neonatal teeth and natal teeth.

4. Incidence and Prevalence

Natal teeth are three times more common than neonatal teeth. The incidence of natal and neonatal teeth ranges from 1 : 2,000 to 1 : 3,500 [19, 23] (Table 2). The radiographic examination is essential to differentiate the premature eruption of a primary deciduous tooth from a supernumerary tooth [69]. Only 1% to 10% of natal and neonatal teeth are supernumerary. More than 90% of natal and neonatal teeth are prematurely erupted deciduous series of teeth, whereas less than 10% are supernumerary [17, 70, 71]. The supernumerary teeth should always be extracted, but the decision to extract a normal mature natal tooth should be done by taking into account local or general complications and parental opinion.

Table 2.

Review of natal and neonatal teeth cases reported in the literature.

Sr. number Author Sex Age Number of teeth Teeth position and number Macroscopic features Chief symptoms/complaint Treatment
(1) Ruschel H C
et al., 2010 [20]
Male 14 days 1 Maxillary first molar right side Calcified only at occlusal portion, no mobility No complaint Extraction

(2) Deep et al.,
2011 [21]
Female 22 days 1 Mandibular anterior Ulceration over the ventral surface of tongue, no mobility, pain during sucking and feeding Grinding and placement of composite over the teeth

(3) Nandikonda, 2010 [22] Female 10 days 2 Maxilla Whitish opaque in color with a size similar to mandibular anterior region, crown portion was noted without any root structures Cleft palate, causing feeding difficulty to the baby Extraction

(4) Dyment et al., 2005 [23] Female 3 days 2 71 and 81 The teeth did not appear to be excessively mobile Feeding without difficulty Extraction

(5) Shrestha, 2011 [24] Female infant 12 days 2 Mandible, anterior teeth Two teeth in the lower jaw since birth, whitish opaque in color and exhibiting grade III mobility Mother complaining of pain on suckling and refusal to suck milk Extraction

(6) Chandra, 2011 [25] Male 5 days 2 71, 81 mandibular anterior (natal) Mobile, whitish opaque Discomfort in feeding Extraction
Female 18 days 1 81 (neonatal) Mobile, whitish opaque Difficulty in breast feeding Extraction
Female 7 days 1 81 (natal) Mobile, whitish opaque Difficulty in breast feeding Extraction

(7) Female gender 6 hours 2 Primary central incisors (71 and 81) with Root formation Two injuries cyst (swelling small tissue soft/small nodule diameter 1 mm color translucent white) at the central region of the jaw
Female 48 hours 2 Ulcer on the tongue
Feeding difficulty
Extraction
Gina et al.,
2008 [26]
Male 9 days 1 Maxillary 51 (Small swelling of soft tissue/pellet 1 mm diameter small whitish translucent) at the central region of the mandible
no uncomfortable and fed showed no complication (breastfeeding)
Male 3 months 1 81 incisors Appearance hypoplastic or hypomineralized (milky white ||)
Mobility grade type II, there was no associated injury
Periodic inspections and recommendations to the mother in relation to the hygiene and eating habits
Female 5 months 1 71 mandibular incisors Extraction

(8) Marakoglu et al., 2004 [27] Male Stillborn 2 Two maxillary first incisors

(9) Kaur et al.,
2003 [28]
Male 4 months 1 Ulcer on ventral surface of tongue Conservative t/t

(10) Ndiokwelu et al., 2004 [29] Female 4 days 1 Upper and lower teeth Associated with Down syndrome

(11) Martinez,
2003 [30]
2 months 2 71, 81 Small root, hypoplastic enamel Tooth mobility Extraction

(12) Rdos et al.,
2011 [31]
Male 11 Prosthetic rehabilitation

(13) Agostini et al., 2008 [32] Male 4 months 2 71, 81 Nodular growth after exfoliation of teeth

(14) Tomaki, et al.,
2005 [33]
Male 27 days 1 81 Milky white and the other half yellowish brown with incomplete tooth crown-like hard tissue Mobile mass with tooth-like hard tissue Extraction

(15) J. Kovac and D. Kovac, 2011 [34] Female 5 weeks 2 71, 81 Hypoplastic Extraction

(16) Sibert and Porteous,
1974 [35]
Female (6) 3 days–6 months 8 71, 81 Extraction

(17) Bartholin* 2 molars

(18) Thomas* 8 incisors
1 molar

(19) Bouchet* 2 mandibular incisors
1 mandibular molar

(20) Jacobi* 1 max molar
1 mandibular molar
2 mandibular incisors

(21) Kaufman* 4 mand molars
4 max molars

(22) M lin* 2 molars

(23) Oriola* 2 mand molars

(24) Allwright* 2 mand molars

(25) Bodenhoff* 2 inciosrs
4 mand molars
4 max molars (1, 2nd)

(26) Wong* 4 inciosrs
2 mand molars
2 max molars (1st)

(27) Soni* 1 mand molar (1st)

(28) Tay* 1 max molar (2nd)

(29) Bernick* 1 max molar (1st)

(30) Ajagebe* 1 mand molar (2nd)

(31) Anderson* 2 max molars (1st)

(32) Ronk* multiple incisors and molars

(33) Primo et al.,
1995 [36]
Female 6 months 2 71, 81 Two dental structures in which the incisor borders had no enamel and had exposed dentin. Mobility The child cried during feeding, indicating pain and bleeding around two erupted teeth Extraction

(34) Basavanthappa et al., 2011 [37] Female 15 days 1 81 Mobile, yellowish color, enamel hypoplasia Difficulty in suckling Extraction
Female 19 days 1 81 Mobile, white color Difficulty in suckling Extraction
Male 16 days 1 51 Mobile, white color Cleft lip and palate Extraction
Female 14 days 1 81 Mobile, white color Sublingual ulceration Extraction
Male 8 days 1 81 Mobile, white color Difficulty in feeding Extraction
Female 18 days 1 71 Mobile, white color Refusal to suck Extraction
Female 30 days 2 71, 81 Mobile, gingival inflammation Refusal to suck, gingival inflammation Extraction
Male 25 days 1 81 Mobile, white color Difficulty in feeding Extraction
Male 18 days 1 71 Mobile, white color Sublingual ulceration Extraction
Female 17 days 1 71 Mobile, white color Refusal to suck Extraction
Male 23 days 1 81 Mobile, white color Refusal to suck Extraction
Female 21 1 71 Mobile, white color Refusal to suck Extraction
Male 7 days 1 81 Mobile, yellowish color Difficulty in suckling Extraction
Male 20 days 1 81 Mobile, white color Difficulty in feeding Extraction
Female 21 days 1 71 Mobile, white color Refusal to suck Extraction

(35) McDonald et al., 2004 [38] Female 2 71, 81 Small, opaque, yellow, dysmorphic crowns No difficulty to mother and child Extraction (at age of 7 years)

(36) Friend et al., 1991 [39] Male 2 days 1 molar 54 A pale, globular tooth-like structure on the maxillary left alveolar ridge, rootless, mobile Extraction

(37) Kurian et al., 2007 [40] Female

(38) Taghi and Motamedi, 2009 [41] Male 8 months Mandibular incisor Ulceration over ventral surface of tounge, difficulty in feeding Grinding and placment of composite over the teeth

(39) Sogi et al.,
2011 [42]
Female 21 days 3 maxillary incisors 51, 61, 62 Mobile Difficulty in feeding Extraction

(40) Venkatesh and Adhisivam, 2011 [43] Female 3 months 2 71, 81 Yellowish with conical edges Congenital hyperthyroidism, associated symptoms Extraction

(41) Roshan et al.,
2009 [44]
2 2 51, 61 Hyper-IgE syndrome

(42) Veena et al.,
2011 [45]
Female 2 weeks 2 71, 81 Ellis van Creveld syndrome Exfoliated

(43) Rao et al.,
2001 [46]
Female 25 days 2 71, 81 Whitish opaque in colour, mobility. The crown size was normal with no roots. Hypomineralized Ulcer over ventral surface of tongue Extraction

(44) Anegundi et al., 2002 [47]. Female 30 days 1 71 Mobile, whitish opaque in colour Localized inflammation, difficulty in feeding Extracted
Female 7 days 2 71, 81 Mobile, small yellowish brown in color Difficulty in feeding Extracted
Male 10 days 2 74, 84 Mobile Difficulty in feeding Extracted
Female 5 days 2 71, 81 Mobile, small, conical, yellowish brown, opaque teeth Difficulty in feeding and refusal to suck Extracted

(45) Singh et al.,
2004 [48]
Male 4 and 1/2 months 1 Pedunculated mass in relation to mandibular anterior tooth Extraction

(46) Ziai et al.,
2005 [49]
Male 4 weeks 1 (premaxillary region-RT side) Bilateral Cleft lip and palate, severe feeding difficulties and recurrent bleeding from movement of the loose tooth Extraction
5 days 1 (premaxillary region-RT side) Difficulty in fabrication of device Extraction

(47) Hegde, 2005 [50] Female 28 days 2 71, 81 Mobile, whitish in color Ulceration over tongue, difficulty in sucking Extraction

(48) S. Sarkar and S. Sarkar, 2007 [51] Male 3 months 1 54 Rootless Difficulty in feeding Extraction

(49) Kumar et al.,
2011 [52]
Female 3 months 3 54, 64, 65 Rootless Early eruption and difficulty in feeding, crying Exraction

(50) Rao and Mathad, 2009 [53] Female 2 days 2 71, 81 Whitish opaque in color, mobile Difficulty in feeding and refusal to suck, crying Extraction

(51) Muraleekrishnan et al., 2011 [54] Male 2 71, 81 Extraction

(52) Masatomi et al., 1991 [55] Male 18 months Multiple Extraction

(53) Gonçalves et al., 1998 [56] Male 1–6 days 12 (multiple)—8 in mandibular anterior region. 2 molars (max/mand) Very little root formation Extraction

(54) Prabhakar et al., 2009 [57] Female (twin) 1 month 1
1
71,
81
Mobility Difficulty in feeding and suckling, and also the mother experienced discomfort feeding them Extraction

(55) Agostini et al., 2008 [58] Male 4 months 2 71, 81 Nodular growth Exfoliated

(56) Dubois et al., 2010 [59] Male 6 months 2 71, 81 Ulcer over ventral surface of tongue Extraction

(57) Eley et al.,
2010 [60]
Female 11 months 2 71, 81 Ulceration over tip of tongue Extraction

(58) Samadi et al.,
2011 [61]

(59) Slayton, 2000 [62] Male 10 months 2 71, 81 Down syndrome Smoothing of the incisal edge

(60) Padmanabhan
et al., 2010 [63]
Male 20 days 1 81 Large whitish lesion was observed on the undersurface of the tongue, difficulty in feeding Neonatal tooth was smoothened to eliminate the sharp traumatizing edges followed by extraction teeth

*Data from 19 to 34 is adapted from [64].

The most commonly occurs in the mandibular region of central incisors, followed by maxillary incisors, mandibular cuspids or molars, and maxillary cuspids or molars in descending order [23, 72] (Table 3). Natal or neonatal cuspids are extremely rare.

Table 3.

Details of our cases (total teeth).

Case number Sex Age Teeth position and number Macroscopic features Chief symptoms/complaint Treatment
1 Male 5 months 2 teeth (71 and 81) (neonatal) Yellowish white. Partially formed root. Size as compared to normal deciduous central incisor, foramina Neither the child nor the mother had any problem during breast feeding Extraction
2 Male 3 days 2 teeth (71 and 81) (natal) Yellowish white, smaller in size Difficulty in feeding Extraction
3 Male 2 months 2 teeth (71 and 81) (neonatal) Yellowish white, open apical foramina, smaller in size Pain and difficulty in feeding Extraction

There was no difference in prevalence between males and females. However, a predilection for female was cited by some authors. Anegundi et al. reported a 66% proportion for females against a 31% proportion for males [47].

5. Multifactorial Etiology

Exact etiology for the premature eruption or for appearance of natal and neonatal teeth is not known. In the past, neonatal teeth were merely considered cysts of the dental lamina of the newborn [67]. Normally they appear corniform, white in colour, composed of compact keratin, and projected above the alveolar ridge [73].

It was also suggested that they occur due to inheritance as dominant autosomal trait. Endocrine disturbance resulting from pituitary, thyroid, and gonads also may be one of the key factors. Another hypothesis suggested is that excessive or increased resorption of overlying bone results in early eruption of the natal or neonatal teeth. Poor maternal health, endocrine disturbances, febrile episodes during pregnancy, and congenital syphilis are some of the contributing predisposing factors for the occurrence of natal and neonatal teeth suggested in the literature. However, according to Štamfelj et al. the occurrence of natal teeth associated with agenesis of their primary successors appears to be related to an accelerated or premature pattern of dental development rather than to superficial positioning of the tooth germs [74].

6. Environmental Predisposing Factors

Environmental factors could play an important role in eruption of neonatal teeth. Polychlorinated biphenyls (PCBs), polychlorinated dibenzo-p-dioxins (PCDDs), and dibenzofurans (PCDFs) seem to cause the eruption of natal teeth [74]. The only environmental factor that may be regarded as a causative factor of natal teeth is the toxic polyhalogenated aromatic hydrocarbons: PCBs, PCDDs, and PCDFs. They are among the most widespread environmental pollutants. They cross the placenta, and concentrations of PCDD/Fs in the adipose tissue of a newborn are correlated with those in mother's milk. The children with natal or neonatal teeth usually show other associated symptoms [38].

7. Syndromes Associated

Few syndromes are reported to be associated with natal teeth and neonatal teeth [8]. These syndromes include Ellis-Van Creveld (Chondroectodermal Dysplasia) [75], Pachyonychia Congenital (Jadassohn-Lewandowsky), Hallermann-Streiff (Oculomandibulodyscephaly with Hypotrichosis) [76], Rubinstein-Taybi, Steatocystoma Multiplex, Pierre-Robin, Cyclopia, Pallister-Hall, Short Rib-Polydactyly (type II), Wiedemann-Rautenstrauch (Neonatal Progeria), Cleft Lip and Palate, Pfeiffer, Ectodermal Dysplasia, Craniofacial Dysostosis, Multiple Steatocystoma, Sotos, Adrenogenital, Epidermolysis-Bullosa Simplex including Van der Woude, Down's Syndrome [77], and Walker-Warburg Syndromes [78].

8. Clinical Presentation

The natal teeth or neonatal teeth manifest usually with variable shape and size ranging from small, conical and may also resemble normal teeth. The appearance of these teeth is dependent on the degree of maturity, but most of the time they are loose, small, discoloured, and hypoplastic as in the cases presented here. They may show enamel hypoplasia/hypomineralization [79] and a small root formation suggestive of an immature nature. The majority of natal teeth may exhibit a brown-yellowish-/whitish-opaque colour [12].

They are attached to the oral mucosa in many instances as the root development is incomplete or defective. This leads to the mobility in teeth, with the risk of being swallowed or aspirated by the child. The mobility also may lead to degeneration of Hertwig's sheath which is responsible for the formation of root, thus resulting in further incomplete root development and stabilization.

Increase in mobility could also cause changes in the radicular part of teeth such as cervical dentin, pulp cavity, and cementum as well.

9. Histology

In a study of natal teeth, Hals [80] observed normal pulp tissue, except for the presence of inflammatory areas in some regions; moreover, Weil's basal layer and the cell-rich zone were absent [81]. Histologically, the thin layer of enamel or in extremely rare conditions absence of the enamel layer may be seen [77]. The enamel hypoplasia could be attributed to the disturbance/variation in amelogenesis process which was due to premature exposure of the tooth to the oral cavity. This may cause metaplastic alteration of the epithelium of the normally columnar enamel to a stratified squamous [80].

Dentino-enamal junction is not scalloped which similar to that found in deciduous teeth. Cervically dentin becomes atubular with spaces and enclosed cells [82]. Irregular dentinal tubules through the dentin along with calcospherites and predentin of various thicknesses could be present [33]. Atypical dentin was also observed in the natal/neonatal teeth which could have been the result due to the response to irritant stimulus from oral cavity.

Developing teeth often had no cementum, and in those cases where acellular cementum could be observed it was thinner than normal.

Pulp canal and pulp chamber become wider in most of the cases. Vascularised pulps along with few inflammatory cells were also reported [83].

10. Ultrastructure Findings

Jasmin and Clergeau-Guerithault [81] studied the surface topography of mandibular natal and neonatal incisors at the ultrastructural level using the scanning electron microscope (SEM). They observed that enamel of the teeth exhibited hypoplastic, depressed areas, and the incisal edge of natal tooth lacked enamel [81]. According to Uzamis et al., the thickness of enamel was around 280 microns compared to up to 1200 microns in normal teeth. This shows the retarded development of natal and neonatal teeth, because of incomplete mineralization at the time of birth [82].

In one of such extensive studies on natal and neonatal teeth, Masatomi et al. [55] reported that enamel has a normal prism structure and mineralization except in few cases where the prism structure was absent in the cervical part of the enamel. They also noticed that the cervical and apical dentin was tubular, and in developing teeth the dentin in these regions changed to an irregularly formed hard tissue of osteodentin character, in which enclosed cells could be observed.

11. Complications

A major complication from natal/neonatal teeth is ulceration on the ventral surface of the tongue caused by the tooth's sharp incisal edge. This condition is also known as Riga-Fede disease or syndrome [47]. Possibility of swallowing and aspiration which has already been described previously should also be one of the major concerns in complications. Other complications stated are injury to mother's breast and inconvenience during suckling. The consequences seen with the teeth include carious lesions, pulp polyp, or premature eruption of successor teeth.

12. Conclusion

Natal and neonatal teeth diagnosis requires detailed case history accompanied by thorough clinical and radiographic examination of the infant. It is important to rule out by radiographic examination whether they are components of normal dentition or supernumerary to decide the treatment plan. The clinician should also assess the risk of haemorrhage due to the hypoprothrombinemia commonly present in newborns.

Classification

  1. The appearance of each natal tooth in the oral cavity can be classified into four categories given as follows, as the teeth emerge in the oral cavity:

    1. shell-shaped crown poorly fixed to the alveolus by the gingival tissue and absence of a root;
    2. solid crown poorly fixed to the alveolus by the gingival tissue and little or no root;
    3. eruption of the incisal margin of the crown through the gingival tissues;
    4. edema of the gingival tissue with an unerupted but palpable tooth.
  2. Spoug and Feasby have suggested that, clinically, natal and neonatal teeth are further classified according to their degree of maturity.

    1. A mature natal or neonatal tooth is the one which is nearly or fully developed and has relatively good prognosis for maintenance.
    2. The term immature natal or neonatal teeth, on the other hand, implies a tooth with incomplete or substandard structure; it also implies a poor prognosis.
  3. If the degree of mobility is more than 2 mm, the natal teeth of category (1) or (2) usually need extraction.

Conflict of Interests

The authors declared that there is no conflict of interests.

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