ライフサイエンスコーパス: tooth root

1 e, aiding in the location of deposits on the tooth root.

2 radiolucency in the coronal one-third of the tooth roots.

3 e (LRAP), in the periodontal region of mouse tooth roots.

4 ectively inhibit dental caries in enamel and tooth roots.

5 The tooth root and periodontal apparatus, including the acel

6 The same principles may also apply to the tooth root and some reports have shown that surface modi

7 s Nfic-deficient mice have agenesis of molar tooth roots and severe incisor defects.

8 No significant increase in tooth root ankylosis was found among the treatment group

9 enerate a vital dental pulp-like tissue in a tooth root canal system and are therefore promising for

10 ation of structurally/functionally competent tooth root cementum is a critical step for the successfu

11 t after three- and five-month implantations, tooth roots containing 3D scaffoldless engineered tissue

12 fy mechanisms involved in HPP-associated PDL/tooth root deficiencies.

13 ation of subgingival caries, root fractures, tooth root deposits, post perforations, and open restora

14 In this study, we used tooth root development as a model with which to investig

15 Tooth root development begins after the completion of cr

16 systems, including the developing tooth, the tooth root development defects were the prominent phenot

17 ght into the molecular mechanisms regulating tooth root development.

18 nd apical papilla (AP) is crucial for proper tooth root development.

19 er, the network of HERS cells is crucial for tooth root development.

20 naling pathway and Nfic are both involved in tooth root development; however, their relationship has

21 fections, leading to pulp necrosis, arrested tooth-root development and tooth loss.

22 Thus, apical revascularization facilitates tooth-root development but lacks consistency in promotin

23 Post-operative tooth-root development in immature permanent teeth repre

24 n rare instances, a GCA lesion may result in tooth-root exposure.

25 The tooth root fenestration preclinical model is an ideal to

26 st mutation described that affects primarily tooth root formation and should greatly aid our understa

27 the critical gaps in our understanding about tooth root formation but will aid future research regard

28 Here, we report a developmental study of tooth root formation in Hyp mouse molars, focusing on de

29 nation of ank mutant mice at earlier ages of tooth root formation indicated that this striking observ

30 tal mesenchymal progenitors is essential for tooth root formation, underscoring importance of the PTH

31 s Cre transgenic mouse lines used to achieve tooth root formation-related gene deletion or overexpres

32 t and NFIC-independent signaling pathways in tooth root formation.

33 role of Hertwig's epithelial root sheath in tooth root formation.

34 ate that Osx is a site-specific regulator in tooth root formation.

35 cellular and molecular mechanisms underlying tooth root formation.

36 These new insights into tooth root growth now provide an additional line of enqu

37 ts perceived ability to enable postoperative tooth-root growth, is being accepted worldwide.

38 The tooth root is an integral, functionally important part o

39 explored the relationship between growth in tooth root length and the modern human extended period o

40 Growth in tooth root length occurs with a characteristic spurt or

41 Tooth-root lengths lacked significant postoperative gain

42 lenging and in turn may deleteriously affect tooth root maturation.

43 Tooth roots provide support to counter chewing forces an

44 connective tissue graft procedures to treat tooth root recession.

45 ar, fibrous tissue throughout, whereas empty tooth roots remained predominantly empty.

46 ment detachment, extensive alveolar bone and tooth root resorption, and incisor malocclusion.

47 us defects were thoroughly debrided, and the tooth root(s) were planed/prepared.

48 de aggregate was used to seal one end of the tooth root segment, while the other was left open.

49 e methods to regenerate pulp-like tissues in tooth root segments (RSs).

50 es were placed into the canal space of human tooth root segments that were capped on one end with cal

51 egarding the identifying factors controlling tooth root size and the generation of a whole "bio-tooth

52 eroids were inserted into the canal space of tooth-root slices and were implanted subcutaneously into

53 revealed that, after four-week implantation, tooth-root slices containing microtissue spheroids resul

54 ining indicated that the tissue found in the tooth-root slices was of human origin, as characterized

55 lular pulp-like tissues, compared with empty tooth-root slices, which were filled with only subcutane

56 ization and magnification of the subgingival tooth root surface, aiding in the location of deposits o

57 Cementum, a mineralized tissue lining the tooth root surface, is destroyed during the inflammatory

58 of cementum, a mineralized tissue lining the tooth root surface, is required for development of a fun

59 elivery of growth-promoting molecules to the tooth root surface.

60 healing and/or regeneration when applied to tooth root surfaces in soft tissue dehiscence models.

61 Damage to tooth root surfaces may occur during ultrasonic cleaning

62 isolated tooth agenesis, microdontia, short tooth roots, taurodontism, sparse and slow-growing hair,

63 nt in cementum, the hard tissue covering the tooth root that anchors periodontal ligament (PDL) attac

64 ementum is a mineralized tissue covering the tooth root that functions in tooth attachment and poster

65 otential of laser pre-treatment of enamel or tooth roots to inhibit subsequent acid-induced dissoluti

66 flap reflection and initial debridement, the tooth roots were notched at the apical extent of the cal