Results 41 to 50 of about 85,577 (346)

Structure of Carbon Nanotube-dendrimer composite

, 2012
Using all atomistic molecular dynamics (MD) simulations we report the microscopic picture of the nanotube-dendrimer complex for PAMAM dendrimer of generation 2 to 4 and carbon nanotube of chirality (6,5).
Maiti, Prabal K, Pramanik, Debabrata, Sood, A. K., Vasumathi, V.   +3 more
core   +1 more source

Molecular modeling to study dendrimers for biomedical applications [PDF]

, 2014
© 2014 by the authors; licensee MDPI; Basel; Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution license (http://creativecommons.org/licenses/by/4.0/).
Buhleier, Carbone, Florida, Helena Florindo, Hess, Klajnert, Liana Silva, Mire Zloh, Nuno Martinho, Radhika, Shaunak, Shcharbin, Steve Brocchini, Teresa Barata, Tomalia, Šebestík   +15 more
core   +4 more sources

Dendrimers, Dendrons, and the Dendritic State: Reflection on the Last Decade with Expected New Roles in Pharma, Medicine, and the Life Sciences

Pharmaceutics
This perspective begins with an overview of the major impact that the dendron, dendrimer, and dendritic state (DDDS) discovery has made on traditional polymer science.
Donald A. Tomalia
doaj   +1 more source

Investigations on The Mechanism of Artificial Photosynthesis of Ca-Pc-PDI and Dendrimer Molecule by DFT Calculations

Jurnal Ilmu Dasar, 2018
Artificial photosynthesis modelling of Ca-Pc-PDI complex Ca Phthalocyanine Perylenediimide), and dendrimer molecule using Density of Functional Theory (DFT) Method has been studied to showed the energy efficiency of these compounds in terms of electron ...
Rahmat Gunawan, Ulinnuha Hammamiyah, Fahmi Fadillah, Chairul Saleh, Saibun Sitorus   +4 more
doaj   +1 more source

Charge-induced conformational changes of dendrimers

, 2008
We study the effect of chargeable monomers on the conformation of dendrimers of low generation by computer simulations, employing bare Coulomb interactions. The presence of the latter leads to an increase in size of the dendrimer due to a combined effect
Allen M. P., Antoni P., Ballauff M., Buhleier G. E., Evans H. M., Frenkel D., Galperin D. E., Grest G. S., Guipponi G., Gurtovenko A. A., Götze I. O., Götze I. O., Jusufi A., Konieczny M., Korn G. A., Likos. C. N., Lyulin S. V., Majtyka M., Mei Y., Meier-Kroll A. A., Nisato G., Pötschke D., Pötschke D., Rathgeber S., Rädler J. O., Verma I. M., Welch P., Wittemann A., Zook T. C.   +28 more
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Dendritic glycopolymers based on dendritic polyamine scaffolds: view on their synthetic approaches, characteristics and potential for biomedical applications [PDF]

, 2014
In this review we highlight the potential for biomedical applications of dendritic glycopolymers based on polyamine scaffolds. The complex interplay of the molecular characteristics of the dendritic architectures and their specific interactions with ...
Abbott, Agarwal, Agashe, Agashe, Agrawal, Agrawal, Albersheim, Albertazzi, Amir, Anajwala, Andre, Andre, Andre, Anna Janaszewska, Antoni, Antoni, Aoi, Appelhans, Appelhans, Arima, Arima, Arima, Arima, Arima, Baek, Baigude, Baigude, Baker, Bandaru, Barbara Klajnert-Maculewicz, Barner-Kowollik, Bettinger, Bhadra, Bhadra, Boas, Bogdan, Bogdan, Bojarova, Borges, Boye, Branco de Barros, Branderhorst, Branson, Brigitte Voit, Calderon, Carlmark, Carlmark, Chabre, Chabre, Chabre, Chen, Chen, Cheng, Cheng, Choudhury, Ciepluch, Ciolkowski, Ciolkowski, Cloninger, Conte, Cook, Cummins, Danishefsky, de Paz, Diebold, Dietmar Appelhans, Dolenc, Dominguez, Dondoni, Drzewinska, Duncan, Duncan, Dutta, Dutta, Dutta, Dutta, Ennen, Erbacher, Fajac, Filimon, Fischer, Franiak-Pietryga, Gabius, Gajbhiye, Gajbhiye, Gajbhiye, Gajbhiye, Gajbhiye, Garcia-Vallejo, Garg, Ghirardello, Gorelik, Gorityala, Gringas, Grobarova, Grosse, Grosse, Grosse, Gupta, Gupta, Gutsch, Hatano, Hauptmann, Hauptmann, He, Hu, Höbel, Iha, Ikeda, Imberty, Ina, Jain, Jain, Jain, Jain, Jain, Jain, Janaszewska, Janaszewska, Jararaman, Jararaman, Jayaraman, Jia, Joanna Lazniewska, Kade, Kaminskas, Kantchev, Kempe, Kensinger, Kensinger, Kesharwani, Kiessling, Kihara, Kihara, Kim, Klajnert, Klajnert, Klajnert, Klajnert, Klajnert, Klementieva, Klementieva, Kottari, Krist, Ku, Kuhlbeil, Kumar, Kunath, Kuo, Kuo, Kurmi, Köth, Laurino, Leclercq, Lee, Li, Lindhorst, Liu, Liu, Llinares, Lopez-Marin, Ma, Majoinen, Malik, Maly, Mangold, Marradi, Martos, Martínez, Matsushita, Matsushita, McCarthy, McCarthy, McCarthy, McCarthy, McNermy, Medina, Medina, Medina, Mignani, Mignani, Mignani, Mignani, Milowska, Misra, Mkandawire, Monsigny, Motoyama, Nahar, Narayan, Needham, Nepogodiev, Nicolas, Niederhafener, Niederhafener, Niederhafener, Ogiso, Oka, Oka, Ottaviani, Palcic, Paolino, Paolino, Papadopoulos, Park, Park, Park, Park, Patel, Pedziwiatr-Werbicka, Percec, Polikarpov, Richter, Robb, Ross, Roy, Roy, Roy, Roy, Rudd, Röckendorf, Sakamoto, Santoyo-Gonzáles, Santoyo-Gonzáles, Sapsford, Sashiwa, Satoh, Schengrund, Seah, Sethi, Shah, Sharma, Sharon, Shaunak, Shcharbin, Shiao, Sinha, Solassol, Stefani, Sun, Supattapone, Svenson, Svenson, Szewczyk, Szulc, Szulc, Tekade, ten Brummelhuis, Thünemann, Ting, Touaibia, Tripp, Tsutsumiuchi, Turnbull, Vacas Córdoba, Vepŕek, Wada, Wada, Walter, Wang, Wang, Wang, Warenda, Wasiak, Wijagkanalan, Wolfenden, Woller, Wood, Wu, Wu, Zanini, Zanini, Zanta, Zhang, Ziemba, Ziemba, Ziemba, Ziemba, Zinselmeyer   +278 more
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Precise localization of metal nanoparticles in dendrimer nanosnakes or inner periphery and consequences in catalysis

Nature Communications, 2016
Understanding the relationship between the location of nanoparticles (NPs) in an organic matrix and their catalytic performances is essential for catalyst design.
Xiang Liu, D. Gregurec, J. Irigoyen, Á. Martínez, S. Moya, Roberto Ciganda, Philippe Hermange, J. Ruiz, D. Astruc   +8 more
semanticscholar   +1 more source

Kinetic limitations of cooperativity based drug delivery systems

, 2008
We study theoretically a novel drug delivery system that utilizes the overexpression of certain proteins in cancerous cells for cell specific chemotherapy. The system consists of dendrimers conjugated with "keys" (ex: folic acid) which "key-lock" bind to
Alexei V. Tkachenko, I. G. Campbell, Nicholas A. Licata, S. D. Weitman, S. D. Weitman   +4 more
core   +1 more source

Mechanisms of light energy harvesting in dendrimers and hyperbranched polymers [PDF]

, 2011
Since their earliest synthesis, much interest has arisen in the use of dendritic and structurally allied forms of polymer for light energy harvesting, especially as organic adjuncts for solar energy devices.
Acocella, Aida, Allcock, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Andrews, Archut, Astruc, Badaeva, Ball, Ball, Balzani, Bar-Haim, Bar-Haim, Barber, Becker, Beljonne, Bentz, Bradshaw, Bradshaw, Bradshaw, Bradshaw, Burn, Cao, Cavaye, Cheng, Cho, Daniels, David L. Andrews, David S. Bradshaw, Drobizhev, Dykes, Fernandez-Alberti, Fréchet, Galli, Gao, Hahn, Harpham, He, Heijs, Huo, Ishizaki, Ishizaki, Jang, Jenkins, Jenkins, Jenkins, Jordanides, Katan, Kim, Kishi, Larsen, Lehka, Li, Liu, May, Megow, Monguzzi, Muñoz-Losa, Nakano, Nakano, Nantalaksakul, Narayanan, Nishiyama, Palma, Parquette, Paulo, Peng, Poliakov, Powell, Ranasinghe, Scholes, Scholes, Shortreed, Stockmann, Swallen, Thayumanavan, Tretiak, van der Meer, van Patten, Varnavski, Varnavski, Vlaming, Wang, Winroth, Wong, Wu, Xu, Yan, Yeow, You, Zhang, Zhu   +102 more
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Microglial migration and interactions with dendrimer nanoparticles are altered in the presence of neuroinflammation

Journal of Neuroinflammation, 2016
Microglial cells have been implicated in neuroinflammation-mediated injury in the brain, including neurodevelopmental disorders such as cerebral palsy (CP) and autism.
Fan Zhang, Elizabeth A. Nance, Yossef Alnasser, R. Kannan, S. Kannan   +4 more
semanticscholar   +1 more source