Results 91 to 100 of about 740,251 (248)
The arrow-of-time in neuroimaging time series identifies causal triggers of brain function. [PDF]
Bolton TAW +4 more
europepmc +1 more source
Organoids in pediatric cancer research
Organoid technology has revolutionized cancer research, yet its application in pediatric oncology remains limited. Recent advances have enabled the development of pediatric tumor organoids, offering new insights into disease biology, treatment response, and interactions with the tumor microenvironment.
Carla Ríos Arceo, Jarno Drost
wiley +1 more source
Decomposing the Local Arrow of Time in Interacting Systems. [PDF]
Lynn CW, Holmes CM, Bialek W, Schwab DJ.
europepmc +1 more source
Gut microbiome and aging—A dynamic interplay of microbes, metabolites, and the immune system
Age‐dependent shifts in microbial communities engender shifts in microbial metabolite profiles. These in turn drive shifts in barrier surface permeability of the gut and brain and induce immune activation. When paired with preexisting age‐related chronic inflammation this increases the risk of neuroinflammation and neurodegenerative diseases.
Aaron Mehl, Eran Blacher
wiley +1 more source
The arrow of time of brain signals in cognition: Potential intriguing role of parts of the default mode network. [PDF]
Deco G +6 more
europepmc +1 more source
Diversity and complexity in neural organoids
Neural organoid research aims to expand genetic diversity on one side and increase tissue complexity on the other. Chimeroids integrate multiple donor genomes within single organoids. Self‐organising multi‐identity organoids, exogenous cell seeding, or enforced assembly of region‐specific organoids contribute to tissue complexity.
Ilaria Chiaradia, Madeline A. Lancaster
wiley +1 more source
Arrow of Time, Entropy, and Protein Folding: Holistic View on Biochirality. [PDF]
Dyakin VV, Uversky VN.
europepmc +1 more source
Plasma membranes contain dynamic nanoscale domains that organize lipids and receptors. Because viruses operate at similar scales, this architecture shapes early infection steps, including attachment, receptor engagement, and entry. Using influenza A virus and HIV‐1 as examples, we highlight how receptor nanoclusters, multivalent glycan interactions ...
Jan Schlegel, Christian Sieben
wiley +1 more source
Assessment of Arrow-of-Time Metrics for the Characterization of Underwater Explosions. [PDF]
Miralles R +3 more
europepmc +1 more source

