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1 d promising approach for future regenerative endodontics.
2 nd improving dental materials, especially in endodontics.
3 scaffolds and/or stem cells in regenerative endodontics.
4 mately one-third of the RAG-2 mice developed endodontic abscesses, while no immunocompetent controls
5 tically assessing the recent advancements in endodontic AI research for clinical applications, includ
7 membrane in association with teeth that had endodontic and/or periodontic involvement, and a nearly
8 the impact of technical advances for modern endodontics and endodontic microsurgery on the long-term
12 e for detecting vital bacteria within mature endodontic biofilms, with an improved sensitivity over c
15 ions and challenges imposed by the nature of endodontic data sets, AI transparency and generalization
16 o attenuate inflammation and bone erosion in endodontic disease and other inflammation-related osteol
17 tooth-factors, age, diagnosis of caries and endodontic disease and percentage of bone loss at baseli
18 ur results demonstrated that ODN can inhibit endodontic disease development, bone erosion, and immune
19 knockdown in periapical tissues can inhibit endodontic disease development, bone resorption, and inf
20 ooth brushing, initial bone loss, caries and endodontic disease in predicting tooth survival in a pri
29 ion (BM), in preventing major complications (endodontic/extractions/pain)-a patient-centred outcome-d
32 ts with apical periodontitis, an intractable endodontic infection affecting half of the global adult
34 tic lesion (EL) is a common manifestation of endodontic infection where Porphyromonas endodontalis is
37 and can be used to identify a wider range of endodontic-infection-related bacteria including the pres
38 results can help explain the persistence of endodontic infections and demonstrate a new virulence me
40 protects the host from the dissemination of endodontic infections and that RAG-2 mice are more susce
41 sults indicate that bacterial communities in endodontic infections are more diverse than previously d
42 was to explore the microbial communities of endodontic infections at their apical portion by 16S rRN
47 ed a more diverse microflora associated with endodontic infections than that revealed by cultural met
48 is study investigated bacterial diversity in endodontic infections through taxonomic classification b
50 iques can detect the presence of bacteria in endodontic infections when culture techniques yield a ne
51 has been identified in peri-implantitis, in endodontic infections, and in patients with localized ag
53 tive in reducing or eliminating endotoxin in endodontic infections-single or multiple-session treatme
69 dity in chronic otitis media, periodontitis, endodontic lesions, and loosening of orthopedic implants
72 echnical advances for modern endodontics and endodontic microsurgery on the long-term prognosis of to
74 incident radiographically evident lesions of endodontic origin were related to development of coronar
75 ose < or = 40 years old, incident lesions of endodontic origin were significantly associated with tim
77 s commonly associated with these infections (endodontic pathogens [EP]), i.e., Fusobacterium nucleatu
78 d and infected with a mixture of four common endodontic pathogens, and bone destruction was determine
80 ns, including the detection and diagnosis of endodontic pathologies such as periapical lesions, fract
82 studies that investigated the maternal true endodontic-periodontal lesion (EPL) in offspring are sca
86 us cell carcinoma that presented as a benign endodontic-periodontic lesion with a 7-mm periodontal po
93 prosthetic (risk difference [RD], 0.21) and endodontic (RD, 0.11) treatment was higher among histori
95 pain (n = 210, 78.95%), and had restorative/endodontic-related clinical findings (n = 55, 20.68%).
96 uators (periodontist, periodontics resident, endodontics resident, dental student) assessed the photo
100 al pathogen Porphyromonas gingivalis and the endodontic species Enterococcus faecalis were grown to e
101 depth, PI, and BOP), and background factors (endodontic status, smoking status, and surgeon's experie
104 n had been present for 42 years since having endodontic surgery at teeth #8 and #9 after a traumatic
105 regeneration techniques in combination with endodontic surgery using an induced perio-endo defect mo
107 illing materials are commonly used following endodontic surgical procedures; however, their effect on
109 h conditions were assessed, including decay, endodontic therapy (root canal therapy [RCT]), and/or ex
112 e present findings demonstrate that adequate endodontic therapy performed >/=6 months before surgical
113 f the tooth with nerve fiber ablation (i.e., endodontic therapy), generally alleviates pain and allow
116 lation, performed to evaluate the quality of endodontic treatment (ET) and the condition of the peria
118 oth implants (SI) to teeth receiving initial endodontic treatment (IET), non-surgical (NET), and surg
119 OR, 1.52), restorative treatment (OR, 1.35), endodontic treatment (OR, 1.63), and more than 10 oral c
120 care (PDC), PDC without an extraction and/or endodontic treatment (PDC without Ext/Endo), PDC with an
122 pair treatments include fillings for caries, endodontic treatment for pulp necrosis, and dental impla
123 A major cause of apical periodontitis after endodontic treatment is the bacterial infiltration which
124 ant and adjacent tooth and/or with time from endodontic treatment of adjacent tooth to implant placem
125 ded in this study (N = 20) were referred for endodontic treatment of mature teeth with apical lesions
135 t term but the survival and success rates in endodontic treatments dropped more rapidly than single t
136 of this study, single tooth implants and the endodontic treatments yielded predictable survival and s
138 e, AI will significantly affect the everyday endodontic workflow, education, and continuous learning.