Results 31 to 40 of about 8,295 (228)

Pleosporales [PDF]

, 2011
One hundred and five generic types of Pleosporales are described and illustrated. A brief introduction and detailed history with short notes on morphology, molecular phylogeny as well as a general conclusion of each genus are provided.
A Aptroot, A Aptroot, A Funk, A Hedjaroude, A Leuchtmann, A Leuchtmann, A Munk, A Munk, A Munk, A Pinnoi, A Płachecka, A Sivanesan, A Sivanesan, A Sivanesan, A Sivanesan, A Stamatakis, AC Stolk, AC Stolk, AD Poonyth, AI Romero, AJL Phillips, AMC Tang, AW Ramaley, AY Rossman, AY Rossman, B Aguirre-Hudson, B Auerswald, BC Lodha, BD Borse, BJ Coppins, BS Vieira, BV Boylan, C Bayon, C Moreau, C Roux, C Spegazzini, C Spegazzini, C Spegazzini, C Spegazzini, CA Shearer, CA Shearer, CA Shearer, CA Shearer, CGC Chesters, CGC Chesters, Ch Ramesh, CL Schoch, CL Schoch, Conrad L. Schoch, CY Chen, D Griffiths, D Malloch, D Morakotkarn, DA Johnson, DC Welch, DF Farr, DK Upreti, DL Hawksworth, DL Hawksworth, DL Hawksworth, DL Hawksworth, DL Hawksworth, DL Hawksworth, DL Hawksworth, DL Hawksworth, DL Hawksworth, DL Hawksworth, DMW Silva-Hanlin, DR Reynolds, DT Kowalski, DV Narendra, E Müller, E Müller, E Müller, E Müller, E Müller, E Tanaka, EA Gäumann, EBG Jones, ECY Liew, ECY Liew, EG Simmons, EG Simmons, EG Simmons, EG Simmons, EG Simmons, EM Fries, ER Luck-Allen, ES Luttrell, ES Luttrell, ES Luttrell, EWA Boehm, EWA Boehm, F Arenal, F Chevenet, F Höhnel von, F Höhnel von, F Mirza, F Petrak, F Petrak, F Petrak, F Theissen, F Theissen, FE Clements, FL Stevens, FM Clum, G Arnaud, G Lindau, G Massee, G Moore, G Niessl von, G Notaris de, GJ Samuels, GJ Samuels, GK Mugambi, GK Mugambi, GL Maria, H Kwasna, H Scheinpflug, H Sydow, H Voglmayr, H Zalasky, HA Raja, HC Wetzel, HCJ Godfray, HK Wang, HT Lumbsch, I Hino, I Hino, I Miyake, J Bitzer, J Checa, J Fröhlich, J Guarro, J Guarro, J Guarro, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Kohlmeyer, J Webster, J Webster, J Webster, J Webster, JA Arx von, JA Arx von, JA Arx von, JA Arx von, JA Arx von, JA Arx von, JA Arx von, JA Khan, JC Dianese, JD Gruyter de, JE Stajich, JH Fabre, JL Crane, JM Walker, JN Rai, JR Boise, JR Boise, JR Boise, JR Boise, JW Dong, JW Taylor, JZ Yue, K Hirayama, K Keissler, K Sultana, K Tanaka, K Tanaka, K Tanaka, K Tanaka, K Tanaka, K Tanaka, K Tanaka, K Tanaka, KA Pirozynski, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KD Hyde, KE Zeiders, Kevin D. Hyde, KJ Leonard, L Cai, L Fuckel, L Fuckel, L Holm, L Holm, L Holm, L Holm, L Holm, L Holm, L Zheng, LE Lorenzo, LE Wehmeyer, LE Wehmeyer, LE Wehmeyer, LE Wehmeyer, LM Holm, LM Winton, LN Vassiljeva, M Morelet, M Ulloa, MC Cooke, MC Saxena, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, ME Barr, MJ Berkeley, ML Davey, MM Aveskamp, MP Câmara, MPS Câmara, MPS Câmara, ND Pattengale, O Constantinescu, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, OE Eriksson, P Inderbitzin, P Inderbitzin, P Inderbitzin, PA Saccardo, PA Saccardo, PA Saccardo, Pedro W. Crous, PF Cannon, PF Cannon, PJ Fisher, PM Kirk, PM Kirk, PR Johnston, QD Wheeler, R DeSalle, R Kodsueb, R Kodsueb, R Prado del, RA Seifert, RA Shoemaker, RA Shoemaker, RA Shoemaker, RA Shoemaker, RA Shoemaker, RA Shoemaker, RA Shoemaker, RA Shoemaker, RA Shoemaker, RA Shoemaker, RF Cain, RF Cain, RF Cain, RF Cain, RS Khan, RS Khan, RWG Dennis, RWG Dennis, S Frisullo, S Marincowitz, S Neumann, S Schatz, S Suetrong, SA Alias, SI Ahmed, SI Ahmed, SK Bose, SM Huhndorf, SM Huhndorf, SM Huhndorf, SM Huhndorf, SR Ellwood, T Kishi, TF Cheng, TR Nag Raj, TW Thompson, V Calatayud, VM Morales, VM Ranghoo, W Kirschtein, W Watson, WJ Kaiser, Y Zhang, Y Zhang, Y Zhang, Y Zhang, Y Zhang, Y Zhang, Ying Zhang, YZh Wang, Z Maciejowska, ZQ Yuan, ZQ Yuan, ZQ Yuan, Å Kruys, Å Kruys   +354 more
core   +4 more sources

Mechanical plaque removal in step‐1 of care

Periodontology 2000, EarlyView., 2023
Abstract Maintaining a regular oral hygiene routine is essential for taking care of our mouths, ensuring healthy teeth, and achieving fresh breath. Patient education on oral hygiene is an important component of their overall treatment. Firstly, patients should be informed about the direct connection between bacteria in dental plaque and oral diseases ...
G. A. (Fridus) Van der Weijden, Cor van Loveren   +1 more
wiley   +1 more source

Isolation and characterization of apical papilla cells from root end of human third molar and their differentiation into cementoblast cells: an in vitro study

Biological Procedures Online, 2023
Background Periodontal regeneration, treatment of periodontal-related diseases and improving the function of implants are global therapeutic challenges. The differentiation of human stem cells from apical papilla into cementoblasts may provide a strategy
Morvarid Ebadi, Amirfarhang Miresmaeili, Sarah Rajabi, Shahrokh Shojaei, Sareh Farhadi   +4 more
doaj   +1 more source

The Effect of Dental Stem Cell Conditioned Medium on the Thickness of the Damaged Retina in Rat [PDF]

مجله دانشکده پزشکی اصفهان, 2022
Background: Mesenchymal stem cells and their secretions contain various factors that have anti-inflammatory properties. The aim of this study was to evaluate the effect of environment derived from stem cell from apical papilla (SCAP) on H2O2-induced ...
Alireza Dehghani, Mohammad Malekahmadi, Fereshteh Karamali, Sareh Soroushzadeh, Heshmatollah Ghanbari, Ardeshir Talebi, Mohammad Hossein Nasr Esfahani   +6 more
doaj   +1 more source

DLX5 and HOXC8 enhance the chondrogenic differentiation potential of stem cells from apical papilla via LINC01013 [PDF]

Stem Cell Research & Therapy, 2020
AbstractBackgroundMesenchymal stem cell (MSC)-based cartilage tissue regeneration is a treatment with great potential. How to enhance the MSC chondrogenic differentiation is a key issue involved in cartilage formation. In the present study, we seek to expound the phenotypes and mechanisms of DLX5 in chondrogenic differentiation function in MSCs ...
Haoqing Yang, Yangyang Cao, Jianpeng Zhang, Yuncun Liang, Xiaomin Su, Chen Zhang, Huina Liu, Xiao Han, Lihua Ge, Zhipeng Fan   +9 more
openaire   +3 more sources

White mineral trioxide aggregate induces migration and proliferation of stem cells from the apical papilla. [PDF]

J Endod, 2014
Regenerative endodontic protocols recommend white mineral trioxide aggregate (WMTA) as a capping material because of its osteoinductive properties. Stem cells from the apical papilla (SCAP) are presumed to be involved in this regenerative process, but the effects of WMTA on SCAP are largely unknown.
Schneider R, Holland GR, Chiego D, Hu JC, Nör JE, Botero TM.   +5 more
europepmc   +4 more sources

Effect of Biodentine Coated with Emdogain on Proliferation and Differentiation of Stem Cells from the Apical Papilla [PDF]

Molecular Biology Reports, 2021
Abstract Background: This study assessed the effect of Biodentine coated with Emdogain (Biodentine/Emdogain) on proliferation and differentiation of stem cells from the apical papilla (SCAP). Methods and Results: In this in vitro, experimental study, SCAP were isolated from two immature impacted third molars and cultured.
Hamed Karkehabadi, Erfan Ahmadyani, Rezvan Najafi, Elham Khoshbin   +3 more
openaire   +2 more sources

Analysis of gene expression profiles between apical papilla tissues, stem cells from apical papilla and cell sheet to identify the key modulators inMSCs niche [PDF]

Cell Proliferation, 2017
AbstractObjectivesThe microenvironmental niche plays the key role for maintaining the cell functions. The stem cells from apical papilla (SCAPs) are important for tooth development and regeneration. However, there is limited knowledge about the key factors in niche for maintaining the function ofSCAPs.
Shu Diao, Xiao Lin, Liping Wang, Rui Dong, Juan Du, Dongmei Yang, Zhipeng Fan   +6 more
openaire   +2 more sources

Mesenchymal dental stem cells in regenerative dentistry [PDF]

, 2012
In the last decade, tissue engineering is a field that has been suffering an enormous expansion in the regenerative medicine and dentistry. The use of cells as mesenchymal dental stem cells of easy access for dentist and oral surgeon, immunosuppressive ...
Blanquer, Miguel, Iniesta, Francisca, Insausti, Carmen Luisa, Martínez, Salvador, Marín Atucha, Noemi Teresa, Meseguer Henarejos, Ana Belén, Meseguer, Luis, Moraleda Jiménez, José María, Ramírez, María del Carmen, Rodríguez Lozano, Francisco Javier   +9 more
core   +1 more source

Noncanonical Wnt5a Signaling Suppresses Hippo/TAZ-Mediated Osteogenesis Partly Through the Canonical Wnt Pathway in SCAPs

Drug Design, Development and Therapy, 2022
Yajing Fu,1 Dan Ma,2 Fengyan Fan,3 Tongke Sun,1 Ruiqi Han,1 Yanran Yang,1 Jun Zhang1 1Shandong University & Shandong Key Laboratory of Oral Tissue Regeneration & Shandong Engineering Laboratory for Dental Materials and Oral Tissue Regeneration ...
Fu Y, Ma D, Fan F, Sun T, Han R, Yang Y, Zhang J   +6 more
doaj