Results 81 to 90 of about 288,601 (227)

Strain‐Programmable Luminescent Adhesive Patch With Tartrazine‐Mediated Optical Skin Clearing for Photochemical Tissue Bonding

Advanced Functional Materials, EarlyView.
We propose a suture‐complementary approach that integrates optical skin clearing with a strain‐programmable luminescent adhesive patch. Hyaluronic acid promotes transdermal delivery of tartrazine to improve optical clearing and stabilizes its interaction with a photosensitizer. Optical clearing increases the penetration depth of visible light into skin,
Seong‐Jong Kim, Kyungjoo Jo, Kwanghyeon Park, Jun Hee Kim, Jong Hyeong Cho, Inhoo Choi, Sei Kwang Hahn   +6 more
wiley   +1 more source

Strategies to deliver peptide drugs to the brain [PDF]

, 2014
Lalatsa, Katerina, Schatzlein, Andreas G., Uchegbu, Ijeoma F.   +2 more
core   +1 more source

The alphaviruses: gene expression, replication, and evolution [PDF]

, 1994
The alphaviruses are a genus of 26 enveloped viruses that cause disease in humans and domestic animals. Mosquitoes or other hematophagous arthropods serve as vectors for these viruses.
Strauss, Ellen G., Strauss, James H.
core   +1 more source

An Engineered Living Material With Pro‐Angiogenic Activity Inducible by Near‐Infrared Light

Advanced Functional Materials, EarlyView.
NIR‐responsive engineered living materials (ELMs) for controlled angiogenesis: Near‐infrared (800 nm) light activates engineered probiotic bacteria within alginate‐based living materials to secrete a blood vessel‐regenerating protein. The released protein promotes pro‐angiogenic effects in endothelial networks and chick chorioallantoic membranes.
Anwesha Chatterjee, Stefanie S. M. Meier, Sara Trujillo, Andreas Möglich, Shrikrishnan Sankaran   +4 more
wiley   +1 more source

Strategies for Loading and Releasing Peptide Therapeutics in Biodegradable Carriers

Advanced Functional Materials, EarlyView.
A biodegradable carrier‐based peptide delivery system is a powerful treatment platform for diverse diseases, owing to its superior therapeutic efficacy and low toxicity. This review examines the conventional peptide‐loaded carrier fabrication process and its current limitations.
Wookyoung Jang, Ki Wan Bong
wiley   +1 more source

Synthesis and intracellular transport of mitochondrial proteins [PDF]

, 1985
A Lustig, A Lustig, A Ohashi, A Viebrock, AJ Lamb, AP Autor, AS Lewin, AS Lewin, B Hennig, B Schmidt, BE Roberts, BG Barrell, C Cote, C Zwizinski, CJ Leaver, DI Meyer, DI Meyer, DL Stigall, DM Kolansky, E Komar, E Marra, E Pratje, E Schmelzer, G Attardi, G Blobel, G Daum, G Daum, G Hallermayer, G Hallermayer, G Kreibich, G Kreil, G Macino, G Reid, G Schatz, G Schatz, G Schatz, G Srivastava, GC Shore, GC Shore, H Freitag, H Koehler, H Korb, H Riezman, H Weiss, IG Macreadie, IZ Ades, IZ Ades, J Kaput, JG Conboy, JP Kraus, K Mihara, K Mihara, K Mihara, K Watanabe, L Ernster, L Randall, LA Grivell, LE Aziz, M Inouye, M Klingenberg, M Klingenberg, M Maccechini, M Mori, M Mori, M Schleyer, M Suissa, M Teintze, M Wikstrom, M Yamamoto, M-L Maccechini, MA Harmey, MA Harmey, MD Hampsey, MM Mueckler, N Cerletti, N Nabi, N Nelson, NK Bhat, P Boehni, P Boehni, P Boogart van den, P Borst, P Borst, P Borst, P McAda, P Sonderegger, P Walter, PC Heinrich, PC Kreibich, PG Adolphus, R Jaussi, R Michel, R Sakakibara, R Zimmermann, R Zimmermann, R Zimmermann, R Zimmermann, RE Kellems, RE Kellems, RO Poyton, S Matsuura, S Miura, S Passarella, S Werner, SD Emr, SM Gasser, SM Gasser, SM Gasser, T Hunt, T Monta, T Oda, VA Rucker, W Neupert, W Wickner, Y Kamisaki, Y Raymond, Y Sagara, Y Yoshida   +117 more
core   +1 more source

In‐Situ Solution Complexation for n‐Type Surface‐Energetics Reconstruction in 2.0 eV Ultra‐Wide‐Bandgap Perovskite Solar Cells

Advanced Functional Materials, EarlyView.
A reactive in situ solution complexation strategy reconstructs the surface of 2.0 eV ultra‐wide‐bandgap perovskites via proton transfer. This chemical modulation eliminates metallic defects and induces a degenerate‐like n‐type surface, establishing an Ohmic tunneling contact.
Saemon Yoon, Han‐Gyun Lim, Jinyoung Kim, Gyu Min Kim, Seojun Lee, Jun Ryu, SungWon Cho, Jincheol Kim, Hyosung Choi, Jung Sang Cho, Jongsung Park, Dong‐Won Kang   +11 more
wiley   +1 more source

Mitochondrial protein import [PDF]

, 1989
Ades, Ades, Adrian, Ainger, Allison, Alt, Aquila, Aquila, Arakawa, Arends, Argan, Argan, Baker, Banroques, Basile, Beckmann, Bedwell, Behra, Bellion, Beltzer, Beltzer, Berkhout, Bhasker, Bhat, Blobel, Borst, Bouillaud, Boutry, Brandriss, Braun, Burns, Böhni, Böhni, Cerletti, Chatton, Chen, Chen, Chen, Chen, Chen, Cheng, Chien, Chien, Chirico, Chu, Conboy, Conboy, Coruzzi, Craig, Dahl, Daum, Daum, De Haan, De Jong, De Lange, De Lange, Deshaies, Dickerson, Dieckmann, Dieckmann, Douglas, Duffaud, Dumont, Eilers, Eilers, Eilers, Ellis, Ellis, Emr, Epand, Evans, Farrell, Farrell, Faye, Firgaira, Fisher, Flügge, Foury, Fox, Freeman, Freitag, Fujiki, Fujiki, Gabellini, Gabellini, Gasser, Gasser, Gasser, Gay, Gearing, Geller, Gillespie, Gilmore, Gilmore, Grant, Grossmann, Guiard, Hackenbrock, Hallemayer, Hallermayer, Hallewell, Hampsey, Hansen, Harmey, Harmey, Harmey, Harmey, Harnisch, Hartl, Hartl, Hartl, Hartl, Hase, Hase, Hase, Hatalova, Hauska, Hawlitschek, Hay, Heinrich, Hemmingsen, Hennig, Hennig, Hennig, Henning, Hensgen, Ho, Ho, Horwich, Horwich, Horwich, Horwich, Horwich, Horwich, Hunter, Hurt, Hurt, Hurt, Hurt, Hurt, Hurt, Hurt, Hurt, Imanaka, Ito, Jaussi, Jaussi, Joh, Just, Kanazawa, Kaput, Kellems, Kellems, Kellens, Keng, Kirwin, Kleene, Koerner, Koerner, Koike, Kolansky, Kolarov, Korb, Kraus, Kraus, Kraus, Kraus, Krebs, Kruse, Kryzwicki, Kun, Labouesse, Lazarow, Lederer, Lennart-Nilsson, Lewin, Lewin, Lindquist, Lingelbach, Lomax, Lubben, Lustig, Lustig, Maarse, Maarse, Maccecchini, Maccecchini, Macino, Maher, Marres, Marzuki, Matsubara, Matsuura, McAda, McGraw, McIntyre, Meyer, Meyer, Meyer, Michel, Mihara, Mihara, Mihara, Mihara, Miura, Miura, Mori, Mori, Morita, Morohashi, Morohashi, Morohashi, Mueckler, Mueckler, Mueckler, Myers, Myers, Müller, Müller, Nagata, Nakagawa, Nargang, Natsoulis, Nelson, Nelson, Ness, Neupert, Neupert, Nguyen, Nguyen, Nguyen, Nguyen, Nicholson, Nicholson, Nicholson, Nicholson, Nishikimi, Nyunoya, Oda, Oda, Ohashi, Ohba, Ohba, Ohta, Ohta, Okamura, Okamura, Ono, Ono, Ono, Ono, Ou, Ou, Oudshoorn, Pain, Pain, Pape, Pape, Park, Patterson, Pelham, Perara, Pfaller, Pfaller, Pfaller, Pfaller, Pfanner, Pfanner, Pfanner, Pfanner, Pfanner, Pfanner, Pfanner, Pfanner, Pfanner, Pfanner, Pfanner, Pillar, Pollock, Pratje, Pratje, Randall, Randall, Raymond, Reid, Reid, Richter, Ricquier, Ridley, Rietveld, Riezman, Riezman, Riezman, Robinson, Roise, Roise, Rothblatt, Rothman, Runswick, Rödel, Römisch, Sabatini, Sachs, Sadler, Saraste, Schatz, Schlenstedt, Schleyer, Schleyer, Schleyer, Schmeizer, Schmidt, Schmidt, Schmidt, Schmidt, Schmidt, Schneller, Schwaiger, Schägger, Sebald, Shore, Sidhu, Sierra, Simmaco, Skerjank, Smagula, Stellwagen, Stuart, Suissa, Suissa, Surguchov, Suske, Sztul, Söllner, Takeda, Takeda, Takiguchi, Tamm, Taniuchi, Teintze, Tropschug, Tzagoloff, Tzagoloff, Ueda, Urban-Grimal, Van Loon, Van Loon, Van Loon, Van Loon, Van Loon, Van Loon, Van Loon, Van Loon, Van Steeg, Vasarotti, Vasarotti, Veloso, Velours, Verner, Vestweber, Viebrock, Von Heijne, Walter, Walter, Walter, Watanabe, Waters, Watts, Weiss, Werner, Wickner, Wiech, Wielburski, Wierenga, Witte, Wold, Woodrow, Wright, Wright, Wu, Yaffe, Yaffe, Yamane, Yoshida, Yoshida, Young, Zimmermann, Zimmermann, Zimmermann, Zimmermann, Zimmermann, Zimmermann, Zwizinski, Zwizinski, Zwizinski, Zwizinski   +395 more
core   +1 more source

Establishing a Model Precursor System: Over a Decade of Research on Carbon Dots from the Citric Acid‐Urea System

Advanced Functional Materials, EarlyView.
The citric acid/urea (CA‐Urea) precursor system offers a versatile, scalable route to carbon dots with tunable luminescence and multifunctionality. Mechanistic insights into precursor chemistry and reaction parameters have enabled doping, surface modification, and hybridization strategies, yielding CDs for luminescent devices, sensing, catalysis ...
Yupeng Liu, Zhiqi Cai, Xiangxin Sun, Hanyi Zhang, Yiming Hao, Jun Wu, Zekun Yan, Xue Wu, Yiqi Liang, Liming Wang, Songnan Qu   +10 more
wiley   +1 more source

Multiplex Modular Nanorobotic Systems with Catalytic Activity under Magnetic Navigation

Advanced Functional Materials, EarlyView.
We present modular nanorobots composed of a magnetic propulsion module and different extension modules carrying functional activities, assembled via DNA base pairing. The system integrates propulsion, optical tracking, enzymatic catalysis, and cell docking in a programmable manner.
Voichita Mihali, Xinan Huang, Lucie Motyckova, Nicolas Moreno Gomez, Michal Skowicki, Cora‐Ann Schoenenberger, Peer Fischer, Cornelia G. Palivan   +7 more
wiley   +1 more source