|Year : 2019 | Volume
| Issue : 6 | Page : 542-552
|Comparison between iRoot BP Plus (EndoSequence Root Repair Material) and Mineral Trioxide Aggregate as Pulp-capping Agents: A Systematic Review
Nasrin Mahgoub1, Basema Alqadasi2, Khalid Aldhorae3, Ali Assiry4, Zainab M Altawili5, Tao Hong6
1 Department of General Dentistry, The First Affiliated Hospital of Xian Jiaotong University, Xian, China
2 Orthodontic Department Hospital of Stomatology Xi’an Jiaotong University, Xi’an, Shaanxi, People’s Republic of China
3 Department of Orthodontics, College of Dentistry, Thamar University, Thamar, Yemen, China
4 Department of Preventive Dental Sciences, Najran University, Najran, Kingdom of Saudi Arabia
5 Private Practice, Yemen Medical Tower, Sana’a, Yemen, China
6 Department of General Dentistry, The First Affiliated Hospital of Xian Jiaotong University, Xian, Shaanxi, China
|Date of Submission||07-Jun-2019|
|Date of Acceptance||05-Sep-2019|
|Date of Web Publication||13-Nov-2019|
Prof. Tao Hong
Department of General Dentistry, The First Affiliated Hospital of Xian Jiaotong University, 227 Yantaxi Road, Yanta District, Xian, Shaanxi, 710061 P.R.
Source of Support: None, Conflict of Interest: None
| Abstract|| |
Introduction: iRoot BP Plus, also known as EndoSequence root repair material (EERM) is a premixed bioceramic thick/putty. According to its instruction manual, iRoot BP Plus is composed of tricalcium silicate, zirconium oxide, tantalum pentoxide, dicalcium silicate, calcium sulfate, calcium phosphate monobasic, and filler agents. This systematic review was carried out to evaluate and present the iRoot BP Plus material as a pulp-capping agent. Materials and Methods: A systematic search for articles with the scope of the selection criteria undergoing for data extraction was conducted through electronic databases. Studies on evaluation of the cytotoxicity, bioactivity, and dentinal bridge formation of iRoot BP, iRoot BP Plus, ERRM putty, or ERRM paste (ERRM) on variant human cells were selected for in vitro models, and dentinal bridge formation on human and animals teeth for in vivo models were selected. Results: A total of 22 articles were discussed in the review, 14 in vitro studies, five in vivo studies, and three articles with both studies. Methyl thiazol tetrazolium was the most used method for evaluating cytotoxicity. As for dentinal bridge formation, histological assessment and micro-Computed tomography were used. Human dental pulp cells (hDPCs) were the most investigated for in vitro models and rats for in vivo models. Except for one study, all studies involved in this review were primarily examining the material and comparing it to different types of mineral trioxide aggregate. Conclusion: iRoot BP, iRoot BP Plus, and ERRM are biocompatible materials that enhance hDPCs and other variant human cells proliferation, migration, attachment adhesion, mineralization, and dentinal bridge formation.
Keywords: EndoSequence root repair material, iRoot BP, iRoot BP Plus, pulp capping
|How to cite this article:|
Mahgoub N, Alqadasi B, Aldhorae K, Assiry A, Altawili ZM, Tao Hong. Comparison between iRoot BP Plus (EndoSequence Root Repair Material) and Mineral Trioxide Aggregate as Pulp-capping Agents: A Systematic Review. J Int Soc Prevent Communit Dent 2019;9:542-52
|How to cite this URL:|
Mahgoub N, Alqadasi B, Aldhorae K, Assiry A, Altawili ZM, Tao Hong. Comparison between iRoot BP Plus (EndoSequence Root Repair Material) and Mineral Trioxide Aggregate as Pulp-capping Agents: A Systematic Review. J Int Soc Prevent Communit Dent [serial online] 2019 [cited 2020 May 29];9:542-52. Available from: http://www.jispcd.org/text.asp?2019/9/6/542/270893
| Introduction|| |
Pulp capping is defined as the management of an exposed vital pulp in which the pulpal wound is sealed with a dental material to facilitate the formation of a reparative dentin and the maintenance of a vital pulp. The capping material plays a principal role in the treatment success. Therefore, it should possess specific characteristics such as biocompatibility, enhancement of reparative dentin formation, preservation of pulp vitality, having a high PH, and attachment to dentin and to filling material. Also, it should be bacteriostatic/bactericidal, sterile, radiopaque, have a short-setting time, low porosity and solubility, and moderate flow., To this day, no material exists that possesses all these properties.
Mineral trioxide aggregate (MTA) was launched in 1993 by Mahmoud Taorabinejad. It is composed of a mixture of dicalcium silicate, tricalcium silicate, tricalcium aluminate, gypsum, tetracalcium aluminoferrite, and bismuth oxide. MTA has overtaken calcium hydroxide by its superior properties, which include having no or low solubility, high pH, releasing calcium hydroxide when exposed to water, biocompatibility, and promoting cell viability, as well as dentin bridge formation that forms faster and has better structural integrity than calcium hydroxide. On the contrary, MTA drawbacks include difficult manipulation, delayed setting time, tooth discoloration, and expensiveness.,,
iRoot BP Plus (Innovative BioCeramix, Vancouver, BC) and iRoot BP (Innovative BioCeramix), also known as EndoSequence root repair material putty (ERRM putty), and ERRM paste are different formulations, similar composition, laboratory-synthesized, ready-to-use, premixed bioceramic thick/putty white pastes, developed for permanent root canal repair and surgical use. According to its instruction manual, ERRM is composed of tricalcium silicate, zirconium oxide, tantalum pentoxide, dicalcium silicate, calcium sulfate, calcium phosphate monobasic, and filler agent. Setting time is a minimum of 2h, which requires the existence of water to set and harden.
Setting may prolong if the application site on the tooth is arid. The moisture needed for setting depends on the moisture present within the dentin, which reaches the root canal through dentinal tubules, therefore eliminating the need to add moisture before placing the material. As iRoot BP Plus is a premixed paste, it can be provided in a jar or a syringe and must be stored in a dry area at room temperature. Sterile plastic instruments should be used to introduce the material to the desired site on a tooth. It is essential to ensure that the site is completely filled to prevent procedural delay from occurring. It is also crucial to control bleeding in case the material washes out. The setting reaction starts as soon as the material comes in contact with the moisture in the tooth. iRoot BP Plus and ERRM are biocompatible,,,, insoluble, produce caustic calcium hydroxide when coming into contact with water, and do not shrink during setting. Their pH is more than 12; they have an antimicrobial effect, are radiopaque, have an excellent sealing ability when used as root-end fillings,, and are known to be aluminum free. This review aimed to answer the specific research question: Are iRoot BP (Plus) and ERRM suitable as pulp-capping agent?
| Materials and Methods|| |
Search strategy and study selection
A systematic search was conducted through the electronic database MEDLINE (PubMed), Google Scholar, and other sources by two reviewers individually. A total of 310 articles were recognized using the following search terms: iRoot BP, iRoot BP Plus, ERRM, and pulp capping. The search was limited to the English language, and 209 articles were removed after the duplicate record was checked, leaving 101 articles. Following the abstract screening, 67 articles were eliminated leaving 34 articles in total. All articles met the inclusion criteria which were as follows: Material: iRoot BP, iRoot BP Plus, ERRM. Studies: In vitro models on human cells (human dental pulp cells [hDPCs], human dental pulp stem cells [DPSCs], human osteoclast, human fibroblast, human periodontal ligament fibroblasts and osteoclast, and human bone marrow-derived stem cells [hBMSCs]) and in vivo models on animals or human teeth were assessed leading to the exclusion of 12 articles. The reason for this is that (n = 8) articles were conducted on animal cells, (n = 3) on humanlike cells, and (n = 1) root-end filling treatment failure; therefore, 22 articles advanced for full-text assessment and were included in this review [Figure 1]. Any disagreements were set on by consent with a third party. The reference lists of selected articles were hand screened, and the search was regularly updated from November 2016 to April 17, 2018. Because of the lack of required statistical data provided by the articles, only a qualitative summary of the studies was attained.
The following 11 parameters were used for quality assessment: teeth free of caries, teeth randomized, appropriate comparator material is chosen, reproduced the results with different models, control group inclusion, examiner blinding, samples with similar dimensions, failure mode evaluation, analysis by a single observer, description of the coefficient of variation, and sample size calculation. The studies were classified as high (0–4), moderate (5–8), or low (9–11) risk of bias.,
A comprehensive data extraction is presented in [Table 1] containing authors' names, country, year of publication, type of cells, source of cells, type of tests, material used, control group, duration of the study, and risk of bias for in vitro studies.
In addition, [Table 2] for in vivo studies contains authors' names, year of publication, species, age/weight, sample size, type of teeth, type of cavity, material, treatment, duration of the study, and risk of bias.
| Results|| |
Description of included articles
Most of the studies were conducted in China (n = 6), the earliest article was published in 2010 and the latest on 2018, (n = 15) and (n = 7) has low and moderate risk of bias respectively, and 27% of the articles were published in the Journal of Endodontics. There were 17 in vitro models, seven of which were performed on dental pulp cells, (hDPCs five studies,,,,, DPSCs two studies),, human gingival fibroblasts two studies,, human dermal fibroblasts two studies,, human osteoblasts one study, human periodontal ligament fibroblasts three studies,,, human periodontal ligament stem cells (PDLSCs) one study, human periodontal ligament osteoblasts one study, and hBMSCs two studies., For cytotoxicity evaluation, methyl thiazol tetrazolium (MTT) assay was the most used test (47%),,,,, followed by quantitative reverse transcriptase polymerase chain reaction (qRT-PCR) (17%),,, then cell proliferation kit II assay (11%),, cell counting kit (CCK)-8 assay (11%),, alkaline phosphatase (ALP) activity (11%),, scratch wound healing and transwell assay (11%),, neutral red (NR) assay and crystal violet dye elution (CVDE) (5%), Almar blue (5%), and Trypan blue (5%), through cell viability (proliferation, differentiation, migration, adhesion, and gene expression).
Also, there were eight in vivo models, three of which were conducted on humans, and the remaining five were on animals, four used rats and one used dogs. These studies evaluated dentinal bridge formation, mineralization, and the presence of inflammatory cells using histological evaluation and micro-computed tomography. Three studies performed pulpotomy,, and seven performed direct pulp capping.,,,,,, Among these, only one study had long-term follow-up, including clinical and radiographic evaluation after vital pulp therapy treatment. Except for one study, all studies compared iRoot BP, iRoot BP Plus, or ERRM to different types of MTA [Table 2].
Description of results
All in vitro studies showed that ERRM and iRoot BP Plus was a biocompatible material that was comparable to MTA. MTT assay showed that the material manifests some degree of cytotoxicity within the first two days as the cell viability decreases, but this increases at day seven as the material sets.,,,,,,,, In contrast, one study showed that iRoot BP has a high cell viability at 24 and 48h [Table 1] and [Table 3]. Trypan dye assay also revealed that the material manifests less cell viability in day one before increasing in day two. CCK-8 assay shows that the viability slightly decreases at day three with the same result at one study. In another study, it showed that iRoot BP Plus increases cell proliferation in day one and then decreases on days three, five, and seven. Almar blue assay showed that ERRM manifests low cell proliferation at days three and four [Figure 2] and [Figure 3].
Scanning electron microscopy (SEM) analysis and confocal laser scanning microscopy (CLSM) were used to evaluate cells grown over the surface of the material when tested on different types of human cells, and these showed proper attachment and adhesion, similar to MTA.,,, Also, the material enhanced mineralization as the results of ALP assay showed, and expressed genes that were related to mineralization (collagen type 1, bone sialoprotein, bone morphogenetic protein [BMP], heme oxygenase 1, osteopontin (OPN), osteonectin, dentin sialophosphoprotein, dentin matrix protein-1, secreted protein acidic cysteine-rich [SPARC]),, and apatite crystal formation.,
In vivo studies showed that the material enhanced reparative dentin bridge formation. In animal teeth, the bridge formed after the application of iRoot BP Plus was slightly thicker than the one developed with MTA, and it continued with primary dentin and had well distinguishable dentin tubules.,,,,
Two studies were conducted on humans undergoing orthodontic treatment. The first study showed that of the five teeth treated with ERRM as pulp-capping material, three teeth showed complete bridge formation with few chronic mild inflammatory cells in two specimens after three weeks. In the other, partial Cvek pulpotomy was performed, and it showed either complete dentin bridge formation six weeks later (58%) or incomplete bridge formation (42%) with mild and moderate inflammation in all teeth treated with iRoot BP. Another study was conducted on humans for long-term follow-up to evaluate the success of the treatment with ERRM, ProRoot MTA, and Biodentine. The result of this study showed that MTA has a double success than ERRM.
| Discussion|| |
The acquired data, a comprehensive discussion of the experimental models, procedures, cells type, activated pathways, the gene expressed, and capping materials in every covered study was out of the range of this review. The authors outlined the typical results obtained from the included studies.
Several factors affected the success of pulp capping: diagnosis, case selection, the hemostatic agent, coronal seal, and the capping material. Several materials had been introduced as pulp-capping agent, each having its properties and drawbacks. This systematic review evaluated iRoot BP (Plus) and ERRM as a capping agent through its biocompatibility and its ability to form a calcified dentinal bridge.
Approximately 68% of the articles in this review studied the effect of the material on pulp either in vitro or in vivo or on both. Dental pulp is a highly vascular and innervated loose connective tissue that contains various cells such as fibroblast, undifferentiated mesenchymal cell, odontoblasts, and other cells. DPSCs are self-renewal cells that can be transformed into odontoblasts, osteoblasts neural cells, and adipocytes. The cytotoxicity of the material is an important factor due to the fact that it can affect the healing and general health of the pulp.
Most of the in vitro studies used MTT assay, which estimates mitochondrial dehydrogenase activity in living metabolically active cells, and which displayed that iRoot BP Plus showed approving biocompatibility to the pulp tissue, encouraged hDPCs proliferation, and was similar or even higher than MTA. This could be explained by the fact that MTA has bismuth oxide as one of its components, giving the material its radiopacity property, which can increase the toxicity of the material, whereas iRoot BP Plus has a tantalum oxide in place of bismuth oxide. In addition, it could be due to the superior hydrophilic calcium silicate component of iRoot BP Plus,,, whereas another study showed that the material can discourage the proliferation of hDPCs equivalent to MTA. One study tested ERRM and MTA on DPSCs and PDLSCs which had quick reaction to the material and displayed a rise in the number of cells on days three and five, which was more than HBMSCs cell number and this may be due to higher basal proliferation of DPSCs and PDLSCs.
Other in vitro studies conducted on different human cells to evaluate the cytotoxicity of the same composition material ERRM revealed that the material showed a little cytotoxicity in the first two days [Tables 1] and ,,,, however, it showed high cell viability at days five, seven, and eight. This may be attributed to the lack of toxicant leaking out from the set material. On the contrary, another study on ERRM putty showed a slightly less cell viability in day seven than day two, and another one displayed ERRM putty as of the lowest cell viability among the tested materials. The different results might be contributed to the different cell types and their responses to the material as well as to the various toxicity tests and the culture medium.
Through the beginning stage of dental pulp repair, adhesion and migration play a significant role. Scratch wound healing assay is used to measure basic cell migration parameters such as persistence, speed, and polarity. Transwell assay is another test for measuring cell migration. Results obtained showed that iRoot BP Plus encouraged the adhesion ability of DPSCs and contributed in wound closure and were similar to MTA. SEM showed that ERRM- and MTA-treated DPSCs, PDLSCs, and hBMSCs spread well and were quite same, as well as it showed that DPSCs treated with iRoot BP Plus displayed finer spreading than those treated with MTA. Also, human gingival fibroblast manifested good adhesion when treated with ERRM and MTA. The similarity in activity between ERRM and MTA might be due to their similar surface characteristics. Another study used CLSM on hBMSCs treated with ERRM and Biodentine. Both materials expressed lower adherence to the cells compared to MTA. The dissimilarity in the results can be accredited to the bioactivity of the specimen samples, the particle size of the material, or to their differences in constituent components. When the material displays adhesion, attachment, migration, and proliferation, this means it can promote healing and it is biocompatible.
When a material gets involved with living tissue and forms biomineralization, an apatite layer at the material tissue interfaces and is considered a bioactive material. The studies showed that iRoot BP Plus has apatite-forming capacity potential, which was better than MTA when tested on DPSCs. ALP assay is used to determine the mineralization potential of the materials. ALP is secreted from osteoblasts and is known to be a membrane-bound biochemical identifying marker of bone turnover. The result exposed that iRoot BP Plus had a mineralization capacity potential more than MTA, same results were obtained from ERRM when tested on hBMSCs., Besides, quantitative reverse transcriptase analysis (real-time PCR) showed that hDPCs treated with iRoot BP expressed gene associated with mineralization BMP-2, osteopontin (OPN), osteonectin (ON) dentin sialoprotein, SPARC.,,
Dentinal bridge formation plays a vital role in the success of pulp capping. In vivo studies, which were 32% of this review, evaluated the bridge formation in human (n = 2) two studies, and in animals (n = 5) five studies. In human studies, one study concluded that there was no difference between iRoot BP and MTA in the appearance of the dentinal bridge and pulp inflammation, and there was less sensitivity to cold in patients treated with MTA. Partial Cvek pulpotomy was the choice of treatment on teeth planned for orthodontic extraction. The other study performed direct pulp capping using ERRM and MTA as capping agents also in teeth scheduled for removal for orthodontic treatment reasons. The materials resulted in dentinal bridge formation with ERRM showing chronic mild inflammation cells in two sample specimens of five. One clinical study with 41 participants and 730 average days follow-up period performed vital pulp therapies for patients treated with ERRM, MTA, and Biodentine. The results showed that the failure of patients who get ERRM was double the odds of failure when compared to patients who get MTA.
Animal studies showed that the dentinal bridge formed after iRoot BP Plus was slightly thicker than the one created with MTA treatment after one month,, and it was in all iRoot BP Plus group without inflammatory cells, whereas one specimen in MTA group has incomplete bridge, containing inflammatory cells. One study also revealed no difference between the two materials, as both manifested complete dentinal bridge without inflammatory cells. Although one study showed that iRoot BP Plus developed tertiary dentin faster and had better quality than MTA, all these results can be partially due to the apatite-forming property of the material and somewhat related to its suitability in an acidic environment., It should be taken into consideration that these studies were under controlled and ideal conditions, caries free (healthy pulp tissue), synthetically made with limited time, and small sample size. For these reasons, further clinical studies should be performed on pulpitis cases for more investigations and accurate results related to clinical conditions.
| Conclusion|| |
The iRoot BP Plus, also known as ERRM putty, seems to be a biocompatible material, with apatite-forming ability to enhance dentinal bridge formation on hDPCs and other variant human cells in vitro and in vivo studies without any severe complications. However, this review strongly recommends more clinical studies to evaluate the prognosis and outcomes for long-term follow-up to assess the material as pulp-capping agent.
We would like to thank Professor Mohmoud M. Mohmed Ali for his support; Dr. Nuha I. Mirghani for providing language help; Assistant Professor Yasir Satti for reviewing; Mr. Ahmed Ramsess for quality assessment; Dr. Sara Abdu, Dr. Osama Sayed Ahmed, and Mr. Mark Song for all their help during the course of the research.
Conflicts of interest
There are no conflicts of interest.
| References|| |
Walton RE, Torabinejad M. Principles and Practice of Endodontics. Philadelphia, itd: WB Saunders Co.1996; 201-33.
Cohen B, Combe E. Development of new adhesive pulp capping materials. Dental Update 1994;21:57-62.
Wang Z. Bioceramic materials in endodontics. Endodontic Topics 2015;32:3-30.
Budig, CG, Eleazer PD. In vitro
comparison of the setting of dry ProRoot MTA by moisture absorbed through the root. J Endodontics 2008;34:712-4.
Souza LCd, Yadlapati M, Dorn SO, Silva R, Letra A. Analysis of radiopacity, pH and cytotoxicity of a new bioceramic material. J Appl Oral Sci 2015;23:383-9.
Faraco IM, Holland R. Response of the pulp of dogs to capping with mineral trioxide aggregate or a calcium hydroxide cement. Dent Traumatol 2001;17:163-6.
De‐Deus G, Canabarro A, Alves GG, Marins JR, Linhares ABR, Granjeiro JM. Cytocompatibility of the ready-to-use bioceramic putty repair cement iRoot BP Plus with primary human osteoblasts. Int Endodontic J 2012;45:508-13.
Öncel Torun Z, Torun D, Demirkaya K, Yavuz ST, Elçi MP, Sarper M, et al
. Effects of iRoot BP and white mineral trioxide aggregate on cell viability and the expression of genes associated with mineralization. Int Endodontic J 2015;48:986-93.
Liu S, Wang S, Dong Y. Evaluation of a bioceramic as a pulp capping agent in vitro
and in vivo.
J Endodontics 2015;41:652-7.
Zhang S, Yang X, Fan M. BioAggregate and iRoot BP Plus optimize the proliferation and mineralization ability of human dental pulp cells. Int Endodontic J 2013;46:923-9.
Damlar I, Ozcan E, Yula E, Yalcin M, Celik S. Antimicrobial effects of several calcium silicate-based root-end filling materials. Dent Mater J 2014;33:453-7.
El Sayed M, Saeed M. In vitro
comparative study of sealing ability of Diadent BioAggregate and other root-end filling materials. J Conserv Dent 2012;15:249.
Leal F, De-Deus G, Brandao C, Luna A, Souza E, Fidel S. Similar sealability between bioceramic putty ready-to-use repair cement and white MTA. Braz Dent J 2013;24:362-6.
Downs SH, Black N. The feasibility of creating a checklist for the assessment of the methodological quality both of randomised and non-randomised studies of health care interventions. J Epidemiol Commun Health 1998;52:377-84.
Możyńska J, Metlerski M, Lipski M, Nowicka A. Tooth discoloration induced by different calcium silicate–based cements: A systematic review of in vitro
studies. J Endodontics 2017;43:1593-601.
Ma J, Shen Y, Stojicic S, Haapasalo M. Biocompatibility of two novel root repair materials. J Endodontics 2011;37:793-8.
Damas BA, Wheater MA, Bringas JS, Hoen MM. Cytotoxicity comparison of mineral trioxide aggregates and EndoSequence bioceramic root repair materials. J Endodontics 2011;37:372-5.
Hirschman WR, Wheater MA, Bringas JS, Hoen MM. Cytotoxicity comparison of three current direct pulp-capping agents with a new bioceramic root repair putty. J Endodontics 2012;38:385-8.
Shokouhinejad N, Nekoofar MH, Razmi H, Sajadi S, Davies TE, Saghiri MA, et al
. Bioactivity of EndoSequence root repair material and bioaggregate. Int Endodontic J 2012;45:1127-34.
Willershausen I, Wolf T, Kasaj A, Weyer V, Willershausen B, Marroquin BB. Influence of a bioceramic root end material and mineral trioxide aggregates on fibroblasts and osteoblasts. Archiv Oral Biol 2013;58:1232-7.
Samyuktha V, Ravikumar P, Nagesh B, Ranganathan K, Jayaprakash T, Sayesh V. Cytotoxicity evaluation of root repair materials in human-cultured periodontal ligament fibroblasts. J Conservative Dent 2014;17:467.
Zhu L, Yang J, Zhang J, Lan DL, Ying XXC, Peng LB. In vitro
and in vivo
evaluation of a nanoparticulate bioceramic paste for dental pulp repair. Acta Biomaterialia 2014;10:5156-68.
Zhang J, Zhu LX, Cheng X, Lin Y, Yan P, Peng B. Promotion of dental pulp cell migration and pulp repair by a bioceramic putty involving FGFR-mediated signaling pathways. J Dent Res 2015;94:853-62.
Torun D, Torun ZÖ, Demirkaya K, Sarper M, Elçi MP, Avcu F. Gene expression changes in bioceramic paste-treated human dental pulp cells. J Oral Sci 2016;58:307-15.
Chen I, Salhab I, Setzer Syngcuk Kim FC, Nah H-D. A new calcium silicate–based bioceramic material promotes human osteo- and odontogenic stem cell proliferation and survival via the extracellular signal-regulated kinase signaling pathway. J Endodontics 2016;42:480-6.
Coaguila-Llerena H, Vaisberg A, Velásquez-Huamán Z. In vitro
cytotoxicity evaluation of three root-end filling materials in human periodontal ligament fibroblasts. Braz Dent J 2016;27:187-91.
Martínez-Cortés M, Tinajero-Morales C, Rosales C, Uribe-Querol E. Cytotoxicity assessment of three endodontic sealing cements used in periapical surgery. In vitro
study. Revista Odontol Mexicana 2017;21:e40-8.
Sultana N, Singh M, Nawal RR, Chaudhry S, Yadav S, Mohanty S, et al
. Evaluation of biocompatibility and osteogenic potential of tricalcium silicate–based cements using human bone marrow–derived mesenchymal stem cells. J Endodontics 2018;44:446-451.
Azimi S, Fazlyab M, Sadri D, Saghiri MA, Khosravanifard B, Asgary S. Comparison of pulp response to mineral trioxide aggregate and a bioceramic paste in partial pulpotomy of sound human premolars: A randomized controlled trial. Int Endodontic J 2014;47:873-81.
Nicholson NT. A retrospective clinical study to evaluate treatment outcomes of vital pulp therapy with ProRoot® mineral trioxide aggregate, EndoSequence® root repair material, and Biodentine®. West Virginia University; 2014:1565515.
Shi S, Bao ZF, Liu Y, Zhang DD, Chen X, Jiang LM, et al
. Comparison of in vivo
dental pulp responses to capping with iRoot BP Plus and mineral trioxide aggregate. Int Endodontic J 2016;49:154-60.
Anujalkhur. Comparative evaluation of response of human dental pulp on direct pulp capping with MTA. ERRM 2016.
Okamoto M, Takahashi Y, Komichi S, Ali M, Yoned N, Ishimot T, et al
. Novel evaluation method of dentin repair by direct pulp capping using high-resolution micro-computed tomography. Clin Oral Invest 2018;22:2879-2887.
Cho SY, Seo DG, Lee SJ, Lee J, Lee SJ, Jung IY. Prognostic factors for clinical outcomes according to time after direct pulp capping. J Endodontics 2013;39:327-31.
Goldberg M, Farges JC, Lacerda-Pinheiro S, Six N, Jegat N, Decup F, et al
. Inflammatory and immunological aspects of dental pulp repair. Pharm Res 2008;58:137-47.
Gronthos S, Brahim J, Li W, Fisher LW, Cherman N, Boyde A, et al
. Stem cell properties of human dental pulp stem cells. J Dent Res 2002;81:531-5.
Lin L, Rosenberg P. Repair and regeneration in endodontics. Int Endodontic J 2011;44:889-906.
Cory G. Scratch-wound assay. In: Cell Migration. Humana Press, Springer; 2011. p. 25-30.
[Figure 1], [Figure 2], [Figure 3]
[Table 1], [Table 2], [Table 3]