Results 51 to 60 of about 1,986 (208)

Ultrasound‐Activated Bifunctional Piezoelectric Hydrogel Dressings Promote Infected Wound Healing via Regulating Angiogenesis and Lymphangiogenesis

Advanced Science, EarlyView.
This study developed a double‐network hydrogel with piezoelectric properties, exhibiting excellent antibacterial activity and promoting fibroblast migration, angiogenesis, and lymphangiogenesis through piezoelectric stimulation, thereby accelerating the healing of infected chronic wounds.
Xiang Li, Zhen Ding, Zhihua Liu, Hao Chen, Jianyang Shan, Yanxuan Shao, Yaling Yu, Gen Wen   +7 more
wiley   +1 more source

Sonodynamic therapy for breast cancer: A literature review

Open Chemistry, 2022
Breast cancer (BC) is a malignant tumor with the highest incidence among women. Surgery, radiotherapy, and chemotherapy are currently used as the first-line methods for treating BC.
Zhou Hai-ying, Chen Yi, Li Ping, He Xiaoxin, Zhong Jieyu, Hu Zhengming, Liu Li, Chen Yun, Cui Guanghui, Sun Desheng, Zheng Tingting   +10 more
doaj   +1 more source

Aptamer‐Engineered Liposomal Platform Enables in Situ cDC1 Vaccination to Potentiate Immunotherapy in Prostate Cancer

Advanced Science, EarlyView.
Prostate cancer is immunologically ‘cold’, with scarce, dysfunctional type 1 conventional dendritic cells (cDC1s) that limit T cell priming. We introduce an aptamer‐targeted liposomedelivering FMS‐like tyrosine kinase 3 ligand (Flt3L) and chlorin e6 (Ce6). Ultrasound induces antigen release and cDC1s recruitment, creating an in situ cDC1 vaccine.
Jiayi Wang, Xuan Wang, Xinfeng Dai, Linxin Tian, Wencheng Shen, Xueliang Liu, Wei Xue, Jiahua Pan, Yu Yang   +8 more
wiley   +1 more source

Ultrasonic Nanomedicine in the Therapy of Oncological Diseases [PDF]

, 2013
In this paper the authors develop the concept of using solid-phase nanoscale inclusions in biological structures, as the concentrators of acoustic energy for ultrasound therapy of oncological diseases.
Bozhevolnov, V.E., Dezhkunov, N.V., Gopin, A.V., Mazina, S.E., Nikolaev, A.L., Treschalina, E.M.   +5 more
core  

Catalytically active NaNbO3 nanorods for sonodynamic cancer therapy

, 2023
Sonodynamic therapy (SDT) has received a lot of interest due to its deep tissue penetration and lack of invasiveness. However, SDT still prioritizes the creation of highly effective, multifunctional, and biocompatible sonosensitizers to improve the ...
Chang, Meiqi, Ding, Xinyi
core  

Comparison of magnetic and non-magnetic nanoparticles as sonosensitizers in ultrasonic hyperthermia [PDF]

, 2020
Nanoparticles have attracted a great interest in scientific world because of the new applications they offer. They are commonly used in medical procedures such as hyperthermia and thermal ablation.
Bielas, R., Hornowski, T., Józefczak, A., Kaczmarek, K., Siluk, M.   +4 more
core   +1 more source

Dual‐Physical‐Field Nanocatalysis: Injectable Hydrogel Enables Piezo‐Photothermal Synergy for Breast Cancer Therapy

Advanced Science, EarlyView.
ABSTRACT Piezocatalytic therapy (PCT) harnesses mechanical energy to generate tumor‐lethal reactive oxygen species (ROS), but its efficacy is limited by rapid electron‐hole recombination and poor intratumoral retention. To overcome these limitations, we engineered heterostructured BiOCl@CuO nanosheets embedded in an injectable, conductive ...
Can Tian, Shihan Xiao, Xuan Chen, Danni Zhang, Zizhen Liu, Jing Wang, Ning Xie, Wei Li   +7 more
wiley   +1 more source

Anti-tumor Mechanism of Sonodynamic Combined with Hyperthermia and Its Application in Tumor

Zhongliu Fangzhi Yanjiu, 2022
Sonodynamic therapy (SDT) is a new non-invasive treatment method that uses a combination of sono-sensitizers and low-intensity ultrasound (US) to treat malignant tumors. SDT is developed from photodynamic therapy (PDT).
HAN Jiaxuan, ZHAO Yun
doaj   +1 more source

Combination Strategies for Targeted Delivery of Nanoparticles for Cancer Therapy [PDF]

, 2019
Pharmaceuticals, and more recently biopharmaceuticals, have become the mainstay for antineoplastic treatments in combination with surgical interventions and radiation therapy.
Agostinis, Ahn, Ai, Akhtar, Alexis, Alkilany, Allison, Anderson, Arouri, Attaluri, Badie, Bae Ki, Baetke, Bakhshizadeh, Bennet, Bentzen, Bibi, Boussif, Bregoli, Brennen, Buczkowski, Bäumler, Casasus, Chan, Chang, Chatterjee, Chen, Chen, Chen, Chen, Cheng, Choi, Clement, Connor, Cook, Couvreur, Date, de la Rica, DeRosa, Deshpande, Detappe, Dixit, Dou, Dougherty, Duchene, Eckmann, El-Sayed, Elhissi, Fairhurst, Feng, Ferrari, Ferrari, Flynn, Foldbjerg, Foote, Funayama, Giri, Godin, Goodman, Gunawan, Gupta, Gupta, Hainfeld, Hainfeld, Hernot, Hilgenbrink, Hirsch, Hu, Husseini, Jack Hu, Jain, Jain, Jia, Jr, Juzenas, Kaasalainen, Kampinga, Karanth, Katiyar, Kautzka, Kennedy, Khanadeev, Kim, Kinsella, Kochevar, Kogan, Konan, Konan-Kouakou, Kong, Kong, Kroto, Kumar, Kunisawa, Kunjachan, Lee, Lee, Li, Li, Liang, Libutti, Liu, Liu, Liu, Liu, Liu, Lonez, Lorimer, Lund, Lux, Malaekeh-Nikouei, Manchun, Manchun, Masood, Mastrobattista, Maya, Mayer, McAllister, Meng, Meyers, Mikkelsen, Miyoshi, Morgan, Moussa, Nel, Newman, Nikitaki, Oliveira, Omar, Osminkina, Ozdemir, Pan, Park, Park, Patra, Plastaras, Putnam, Qian, Radhakrishnan, Rasmussen, Rehman, Rengeng, Ricci-Júnior, Roblero-Bartolon, Roh, Rosa, Rothkamm, Régnard, Saad, Salonen, Sasaki, Secret, Sharma, Sharma, Shukla, Simone, Singh, Sivaram, Song, Soni, Stojanovic, Stuart, Studer, Sultana, Sun, Ta, Taghdisi, Tang, Terentyuk, Tian, Tila, Tiwle, Tolstik, Vannucci, Villiers, Vinogradov, Wang, Wang, Watarai, Whitesides, Wolfe, Wood, Wozny, Wu, Xia, Xu, Xu, Yang, Yang, Yang, Yatoo, Yin, Yu, Yu, Yuba, Zaimy, Zalipsky, Zhao, Zhao, Zhou, Zununi Vahed   +199 more
core   +2 more sources

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