[HTML][HTML] ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered …
X Lin, W Wang, X Chang, C Chen, Z Guo, G Yu… - Particle and Fibre …, 2024 - Springer
Background As the demand and application of engineered nanomaterials have increased,
their potential toxicity to the central nervous system has drawn increasing attention …
their potential toxicity to the central nervous system has drawn increasing attention …
ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered nanomaterials
X Lin, W Wang, X Chang, C Chen… - Particle and fibre …, 2024 - pubmed.ncbi.nlm.nih.gov
Background As the demand and application of engineered nanomaterials have increased,
their potential toxicity to the central nervous system has drawn increasing attention …
their potential toxicity to the central nervous system has drawn increasing attention …
[HTML][HTML] ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered …
X Lin, W Wang, X Chang, C Chen, Z Guo… - Particle and Fibre …, 2024 - ncbi.nlm.nih.gov
Background As the demand and application of engineered nanomaterials have increased,
their potential toxicity to the central nervous system has drawn increasing attention …
their potential toxicity to the central nervous system has drawn increasing attention …
ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered nanomaterials.
X Lin, W Wang, X Chang, C Chen… - Particle & Fibre …, 2024 - search.ebscohost.com
Background: As the demand and application of engineered nanomaterials have increased,
their potential toxicity to the central nervous system has drawn increasing attention …
their potential toxicity to the central nervous system has drawn increasing attention …
ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered nanomaterials
X Lin, W Wang, X Chang, C Chen, Z Guo… - Particle and Fibre …, 2024 - europepmc.org
Background As the demand and application of engineered nanomaterials have increased,
their potential toxicity to the central nervous system has drawn increasing attention …
their potential toxicity to the central nervous system has drawn increasing attention …
[HTML][HTML] ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered …
X Lin, W Wang, X Chang… - Particle and …, 2024 - particleandfibretoxicology …
As the demand and application of engineered nanomaterials have increased, their potential
toxicity to the central nervous system has drawn increasing attention. Tunneling nanotubes …
toxicity to the central nervous system has drawn increasing attention. Tunneling nanotubes …
[PDF][PDF] ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered …
X Lin, W Wang, X Chang, C Chen, Z Guo, G Yu… - 2024 - particleandfibretoxicology …
Background As the demand and application of engineered nanomaterials have increased,
their potential toxicity to the central nervous system has drawn increasing attention …
their potential toxicity to the central nervous system has drawn increasing attention …
ROS/mtROS promotes TNTs formation via the PI3K/AKT/mTOR pathway to protect against mitochondrial damages in glial cells induced by engineered nanomaterials.
X Lin, W Wang, X Chang, C Chen, Z Guo… - Particle and Fibre …, 2024 - europepmc.org
Background As the demand and application of engineered nanomaterials have increased,
their potential toxicity to the central nervous system has drawn increasing attention …
their potential toxicity to the central nervous system has drawn increasing attention …