Results 81 to 90 of about 12,736,310 (369)

Artificial Cells for the Development of Cell Therapy

Cell Transplantation, 2008
In developing cell therapy, normal human cells are ideal as a cell source, but considering the serious lack of donor organs, it is unlikely to obtain a large enough amount of human cells. Moreover, even with current culturing techniques, the long-term culturing of normal human cells is difficult. On the other hand, in using xenogenic porcine cells and
openaire   +3 more sources

Single‐cell insights into the role of T cells in B‐cell malignancies

FEBS Letters, EarlyView.
Single‐cell technologies have transformed our understanding of T cell–tumor cell interactions in B‐cell malignancies, revealing new T‐cell subsets, functional states, and immune evasion mechanisms. This Review synthesizes these findings, highlighting the roles of T cells in pathogenesis, progression, and therapy response, and underscoring their ...
Laura Llaó‐Cid
wiley   +1 more source

Geometric control of myogenic cell fate. [PDF]

, 2006
This work combines expertise in stem cell biology and bioengineering to define the system for geometric control of proliferation and differentiation of myogenic progenitor cells.
Conboy IM, Disatnik MH, Elena M de Juan-Pardo, Irina M Conboy, Massague J, Mike Bao-Trong Hoang, Miller KJ, Partridge TA, Seale P, Tidball JG   +9 more
core   +3 more sources

Towards Artificial Cells in 2D [PDF]

Biophysical Journal, 2014
We shall discuss efforts to integrate artificial biological systems into solid materials. Inspired by the spatial patterns in morphogenesis and by microelectronics, we developed a biochip on which the protein synthesis and assembly is carried out in spatially segregated micro-compartments.
openaire   +2 more sources

Recent Advancements in Targeted Delivery of Therapeutic Molecules in Neurodegenerative Disease–-Spinocerebellar Ataxia–-Opportunities and Challenges

Drug Target Insights, 2008
Drug discovery and its methodologies have been very effective in terms of treating cancers and immunological disorders but have not been able to stop genetic diseases as most of the drugs target at the protein level.
Satya Prakash, Meenakshi Malhotra
doaj   +1 more source

Plasma lipidomic and metabolomic profiles in high‐grade glioma patients before and after 72‐h presurgery water‐only fasting

Molecular Oncology, EarlyView.
Presurgery 72‐h fasting in GB patients leads to adaptations of plasma lipids and polar metabolites. Fasting reduces lysophosphatidylcholines and increases free fatty acids, shifts triglycerides toward long‐chain TGs and increases branched‐chain amino acids, alpha aminobutyric acid, and uric acid.
Iris Divé, Lisa Hahnefeld, Katharina J. Wenger, Donat Kögel, Joachim Steinbach, Gerd Geisslinger, Michael W. Ronellenfitsch, Irmgard Tegeder   +7 more
wiley   +1 more source

Controlling the Bureaucracy of the Antipoverty Program [PDF]

, 1966
Rapid progress made in various areas of regenerative medicine in recent years occurred both at the cellular level, with the Nobel prize-winning discovery of reprogramming (generation of induced pluripotent stem (iPS) cells) and also at the biomaterial ...
Abounit, Armstrong, Auernheimer, Bae, Banito, Banito, Bao, Bass, Basu-Roy, Beier, Ben-Porath, Binyamin, Bitarte, Booth, Brand, Cantz, Cao, Case, Chappell, Chen, Chen, Chen, Chiou, Chylicki, Cobaleda, de Cremoux, Denishefsky, Dickinson, Doi, Eberhard, Egler, Eshghi, Esteban, Evans, Fagin, Feinstein, Feng, Feng, Fimia, Fusaki, Galli, Ghavami, Ghavami, Ghavami, Ghavami, Ghule, Girouard, Godar, Gore, Guo, Guo, Gustafsson, Hanada, Hanley, Hanna, Harper, Hauff, Hellebrekers, Hench, Hench, Hench, Hockemeyer, Hoffmeyer, Hong, Hotta, Hu, Huang, Jain, Jangamreddy, Jangamreddy, Jeter, Jia, Jia, Jia, Junttila, Kaji, Kang, Karimi-Busheri, Kawamura, Kharas, Kim, Kim, Kochhar, Kumar, Lafontan, Lee, Lefebvre, Lengerke, Li, Li, Liu, Liu, Maddika, Marchetto, Marion, Matsuoka, Matsuura, Menendez, Menendez, Mikkelsen, Miller, Miura, Mizuno, Moawad, Momcilovic, Mortensen, Nadiminty, Nagata, Nakagawa, Nakagawa, Nakatogawa, Neumann, Okita, Okita, Okita, Oliver, Parry, Patel, Peng, Place, Plews, Prigione, Ravikumar, Reya, Ribatti, Rius, Rotter, Rowland, Rubinsztein, Ruoslahti, Räisänen, Sabisz, Saigusa, Salemi, Sato, Schenke-Layland, Shan, Singh, Singh, Sommer, Sridharan, Stadtfeld, Stolzenburg, Suhr, Suo, Takahashi, Tirino, Tsai, Tsaousi, Uchino, Vafa, van den Berg, van Tuyn, Vazquez, Vessoni, Vierbuchen, Vincent, Viswanathan, Viswanathan, Wang, Warren, Wary, Wernig, West, Wiechec, Wiechec, Wilmut, Woltjen, Wu, Xynos, Yamanaka, Yang, Yoshida, Yoshimori, Yu, Zbinden, Zhang, Zhang, Zhang, Zhang, Zhang, Zhao, Zheng, Zhou, Zreiqat   +184 more
core   +4 more sources

Exploration of heterogeneity and recurrence signatures in hepatocellular carcinoma

Molecular Oncology, EarlyView.
This study leveraged public datasets and integrative bioinformatic analysis to dissect malignant cell heterogeneity between relapsed and primary HCC, focusing on intercellular communication, differentiation status, metabolic activity, and transcriptomic profiles.
Wen‐Jing Wu, Jianchao Wang, Fuqing Chen, Xuefeng Wang, Bin Lan, Ruyi Fu, Hong Wen, Fangfang Chen, Wei Hong, Tian‐Yu Tang, Ying He, Gang Chen, Jianyin Zhou, Hai‐Long Piao, Di Chen, Shu‐Yong Lin   +15 more
wiley   +1 more source

Trap-Nest Design for Small Trap-nesting Hymenoptera [PDF]

, 2017
(excerpt) Many solitary bees and wasps construct brood cells in pre-existing natural cavities such as beetle borings or in excavations of pithy stems and twigs like Sambucus and Juglans.
Fricke, John M
core   +3 more sources

Is Research on “Synthetic Cells” Moving to the Next Level?

Life, 2018
“Synthetic cells” research focuses on the construction of cell-like models by using solute-filled artificial microcompartments with a biomimetic structure. In recent years this bottom-up synthetic biology area has considerably progressed, and
Pasquale Stano
doaj   +1 more source