Results 121 to 130 of about 163,883 (319)

Nanomedicine Meets Immunotherapy: Advancing Adoptive Cell Therapy with Nanoparticles in the Treatment of Cancer with Sustainability Perspectives

Advanced Science, EarlyView.
This review surveys nanoparticle‐based strategies to enhance adoptive cell therapy, particularly CAR‐T cell approaches, in solid tumor treatment. It describes how nanoparticles can improve tumor immunogenicity and T‐cell infiltration while reducing toxicity, and how they enable in vivo CAR‐T cell generation.
Erica Frostegård, Tatiana Bobrova, Amalie Leinebø, Thibault Leray, Shayamita Ghosh, Lorena García‐Hevia, Chiara Puccinelli, Lorenzo Riccio, Jacopo Sorani, Davide Bonifazi, Julien Caumartin, Emmanuel Donnadieu, Florence Gazeau, Roland Hischier, Else Marit Inderberg, Mónica L. Fanarraga, Maria Loustau, Bernd Nowack, Sébastien Wälchli, Cécilia Ménard‐Moyon   +19 more
wiley   +1 more source

Europe's contribution to the evaluation of the use of systemic antimicrobials in the treatment of periodontitis

Periodontology 2000, EarlyView., 2023
Abstract This narrative review celebrates Europe's contribution to the current knowledge on systemically administered antimicrobials in periodontal treatment. Periodontitis is the most frequent chronic noncommunicable human disease. It is caused by dysbiotic bacterial biofilms and is commonly treated with subgingival instrumentation.
David Herrera, Arie Jan van Winkelhoff, Paula Matesanz, Katalina Lauwens, Wim Teughels   +4 more
wiley   +1 more source

Principles of Periodontology [PDF]

, 2013
Periodontal diseases are among the most common diseases affecting humans. Dental biofilm is a contributor to the etiology of most periodontal diseases.
Aas, Africa, Agrawal, Albandar, Albandar, Albandar, Albandar, Albandar, Albandar, Allen, Ambrosini, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, American Academy of Periodontology, Andersen, Andia, Apatzidou, Apatzidou, Aranki, Arendorf, Armitage, Armitage, Arno, Attström, Axelsson, Axelsson, Axelsson, Axelsson, Axelsson, Axelsson, Badersten, Badersten, Badersten, Baehni, Baelum, Baelum, Baer, Barbour, Bassler, Becker, Bergström, Beuchat, Billings, Bonito, Borrell, Bostanci, Bowers, Bowers, Brayer, Brett, Brewer, Brill, Buchanan, Caffesse, Carranza, Caton, Cecil, Centers for Disease Control and Prevention, Cercek, Chambrone, Chapple, Chapple, Choi, Christou, Chung, Cianciola, Claffey, Claffey, Clark, Clarridge, Clementini, Cobb, Cohen, Collet-Schaub, Corbet, Corey, Cortellini, Cortellini, Cosyn, Cosyn, Crane, Crespi, Czarnetzki, Dale, Darré, Dasanayake, Davé, de Almeida, De Iudicibus, De Lissovoy, De Stefano, Dentino, DeRouen, DeVore, Dolan, Donnenfeld, Dragoo, Drisko, D’Aiuto, Egelberg, Eickholz, Emrich, Erley, Esposito, Fauchard, Ferreira, Fine, Fleischer, Flemmig, Fourrier, Friedman, Galicia, Gasche, Gaunt, Giannobile, Giannobile, Glick, Glickman, Gold, Gold, Golub, Gore, Gottlow, Gottlow, Greenstein, Griffiths, Grob, Grossi, Grossi, Grossi, Guerini, Gürsoy, Haffajee, Haffajee, Hamp, Hanes, Hart, Haslam, Hassell, Hasturk, Haubek, Haubek, Hedley, Hefti, Heijl, Heitz-Mayfield, Heitz-Mayfield, Helldén, Henderson, Henke, Hiatt, Higashi, Hinrichs, Hirschfeld, Holm, Holman, Holt, Holt, Hornef, Hugoson, Hugoson, Hujoel, Hujoel, Hujoel, Hujoel, Hujoel, Hujoel, Hunter, Inagaki, Janket, Jeffcoat, Jenkins, Jepsen, Jin, Johnson, Jori, Joss, Kaldahl, Kaldahl, Kaldahl, Kanzler, Kao, Karpinia, Kato, Kawai, Kenney, Kenney, Kenney, Kiger, Kigure, Kilian, Kim, Kinane, Kirkwood, Kirkwood, Kitano, Knöfler, Kolenbrander, Kolenbrander, Kornman, Kornman, Kressin, Krisanaprakornkrit, Kroes, Kumar, Kuramitsu, Kwok, Laine, Lalla, Lamell, Lang, Lang, Lang, Lang, Laskaris, Lebel, Lesaffre, Liese, Linden, Lindhe, Listgarten, Liu, Loesche, Loomer, Loos, Loscalzo, Luepke, Lynch, Lynch, Löe, Löe, Löe, Löe, Löe, Madianos, Magnusson, Mah, Mahanonda, Maier, Manson, Marazita, Mariotti, Mariotti, Mariotti, Marsh, Marshall, Martinez-Canut, Matia, Mattila, Matuliene, Melcher, Mellonig, Mendez, Merchant, Merritt, Merritt, Meyer, Michalowicz, Michalowicz, Michalowicz, Miller, Miller, Miller, Mombelli, Mongardini, Moore, Mucci, Murayama, Murphy, National Center for Health Statistics, Needleman, Needleman, Nelson, Nesse, Nicholson, Nishida, Novak, Nyman, Nørskov-Lauritsen, Ochsenbein, Offenbacher, Offenbacher, Offenbacher, Offenbacher, Offenbacher, Padbury, Page, Page, Page, Page, Page, Page, Page, Palmer, Paquette, Paster, Paster, Patton, Petersen, Pihlstrom, Pihlstrom, Pischon, Polimeni, Pontoriero, Pontoriero, Porter, Preber, Preber, Preshaw, Preshaw, Preshaw, Quirynen, Ramfjord, Rams, Ranney, Reddy, Reddy, Reimann, Renvert, Reynolds, Roberts, Robinson, Rosenow, Ross, Ross, Röthlisberger, Sabet, Saito, Sanz, Saxén, Saxén, Scannapieco, Scannapieco, Scannapieco, Schallhorn, Schallhorn, Schluger, Schmidlin, Schroeder, Schroeder, Schwarz, Sculean, Sculean, Seinost, Sepe, Serino, Seymour, Seymour, Shklar, Shklar, Sicilia, Silness, Simonka, Skudutyte-Rysstad, Slots, Socransky, Socransky, Socransky, Socransky, Socransky, Stahl, Stahl, Stahl, Stambaugh, Stamm, Stavropoulos, Stefanac, Summers, Suntharalingam, Suzuki, Syriänen, Söderholm, Söderholm, Taichman, Takeuchi-Hatanaka, Tanner, Tanner, Tanner, Taubman, Taylor, Tervonen, Theilade, Thomas, Timmerman, Tomasi, Tonetti, Tonetti, Tonetti, Tonetti, Tonetti, Tonetti, Trombelli, Tuite-McDonnell, Tunkel, van der Velden, van der Velden, Van der Weijden, van Dyke, van Dyke, van Dyke, Waerhaug, Waite, Walker, Walker, Walker, Walmsley, Wang, Westfelt, Wiebe, Williams, Williams, Wilson, Wilson, Wohlfahrt, Yamazaki, Ylöstalo, Yukna, Yukna, Yukna, Zambon, Zambon   +428 more
core   +2 more sources

Dual‐Mode Type I/II Photosensitization of a Stable Mesoporous Hydrogen‐Bonded Organic Framework for Antibacterial Therapy

Advanced Science, EarlyView.
A π‐conjugated donor–acceptor PDI monomer undergoes hydrogen‐bonded self‐assembly to form a robust mesoporous framework. The ordered molecular arrangement promotes efficient intersystem crossing and charge separation, leading to simultaneous Type I and Type II reactive oxygen species generation with a high singlet oxygen quantum yield.
Yi‐Lun Cheng, Hui Yuan, Yuhang Li, Zi‐Yu Wang, Rui Wang, Qi Yin, Xue‐Ning Ren, Miao Zheng, Yi Zeng, Tian‐Fu Liu, Zaisheng Ye   +10 more
wiley   +1 more source

A comprehensive review of carbon dots for antimicrobial therapy: from design mechanisms to theranostic applications

Discover Nano
As an emerging carbon-based nanomaterial, carbon dots (CDs) exhibit broad prospects in antimicrobial therapy owing to their unique physicochemical properties, excellent biocompatibility, and tunable multifunctional characteristics.
Qian He, Liyun Zhang
doaj   +1 more source

Can nanotechnology potentiate photodynamic therapy? [PDF]

, 2011
Photodynamic therapy (PDT) uses the combination of nontoxic dyes and harmless visible light to produce reactive oxygen species that can kill cancer cells and infectious microorganisms.
Chang, Julie, Chiang, Long Y., Chung, Hoon, Dai, Tianhong, Garcia-Diaz, Maria, Hamblin, Michael R, Huang, Ying-Ying, Sharma, Sulbha K., Yaroslavsky, Anastasia   +8 more
core   +1 more source

A Novel Approach Based on Acceptor–Donor–Acceptor Type Molecules Enhances the Therapeutic Efficacy and Safety of Photothermal Therapy for Osteosarcoma

Advanced Science, EarlyView.
Jin et al. developed IEICO‐F nanoparticles with enhanced photothermal conversion efficiency via optimized push‐pull effect. Under 808 nm laser, these nanoparticles effectively generated heat to kill osteosarcoma cells and exhibited significant tumor suppression in vivo. Therefore, this novel A‐D‐A type molecule‐based photothermal therapy strategy holds
Zhijian Jin, Hongru Wang, Yi Yang, Yuhang Xie, Yuan Zhang, Zhiye Du, Yi Huang, Wei Guo, Yang Li, Shidong Wang   +9 more
wiley   +1 more source

Cationic Porphycenes as Potential Photosensitizers for Antimicrobial Photodynamic Therapy [PDF]

Journal of Medicinal Chemistry, 2010
Structures of typical photosensitizers used in antimicrobial photodynamic therapy are based on porphyrins, phthalocyanines, and phenothiazinium salts, with cationic charges at physiological pH values. However, derivatives of the porphycene macrocycle (a structural isomer of porphyrin) have barely been investigated as antimicrobial agents. Therefore, we
Xavier, Ragàs, David, Sánchez-García, Rubén, Ruiz-González, Tianhong, Dai, Montserrat, Agut, Michael R, Hamblin, Santi, Nonell   +6 more
openaire   +2 more sources

H2S‐Amplified “Three‐in‐One” Antibacterial Strategy for Periodontitis Treatment Using a Photosensitive Pillararene‐Embedded COF/MOF Hybrid

Advanced Science, EarlyView.
The integration of ROS‐generating systems with H2S depletion strategies effectively overcomes the limitations imposed by endogenous antioxidant defenses on ROS‐based antimicrobial therapies. In this study, the Cu‐MOF is incorporated into pillararene‐embedded COF, achieving a “three‐in‐one” antimicrobial effect that markedly alleviated periodontal ...
Shuang Liang, Meng‐Hao Li, Liang Cheng, Tian‐Shou Zhang, Hui Hui, Yan Wang, Hong‐Pu Zhang, Bo‐Wen Liu, Lin Wang, Ying‐Wei Yang   +9 more
wiley   +1 more source

Selenium Nanomaterials for Wound Healing: Synergistic Strategies from Anti‐Infection to Tissue Regeneration

Advanced NanoBiomed Research, EarlyView.
Selenium nanoparticles (SeNPs) are emerging as multifunctional platforms for wound healing, integrating antimicrobial, anti‐inflammatory, and proregenerative activities. This review summarises key mechanisms and recent advances in SeNP‐enabled composite dressings, immunomodulatory nanocomposites, microenvironment‐responsive hydrogels, photothermal and ...
Yangxia Chen, Xiaoshuang Liang, Sirui Li, Shuoshan Li, Wei Liu, Yingping Lin, Siqi Li, Zehang Zhang, Judun Zheng, Tianfeng Chen, Rongyi Chen   +10 more
wiley   +1 more source