Pathological |
Lung carcinoma |
Rescued mitochondrial function |
Spees et al., 2006
|
|
Osteosarcoma |
Rescued mitochondrial function |
Cho et al., 2012
|
|
Acute lung injury |
Cellular protection and tissue repair |
Islam et al., 2012
|
|
Ischemia |
Preserving myocardial energetics, cell viability, and enhanced post-infarct cardiac function—protect the heart from ischemia-reperfusion injury |
Masuzawa et al., 2013
|
|
Allergic airway inflammation |
Enhanced rescue of epithelial injury |
Ahmad et al., 2014
|
|
Chronic obstructive pulmonary disease |
Attenuation of cigarette smoke–induced lung damage |
Li et al., 2014
|
|
Ischemia |
Cardioprotection from ischemia-reperfusion injury |
Cowan et al., 2016
|
|
Cerebral ischemia |
Amplified cell survival signals—neurorecovery |
Hayakawa et al., 2016
|
|
Acute respiratory distress syndrome |
Enhancement of phagocytic activity of lung alveolar macrophages |
Jackson et al., 2016a; Jackson et al., 2016b
|
|
Acute myeloid leukemia |
Resistance to chemotherapy |
Moschoi et al., 2016
|
|
Canine transmissible venereal tumor |
Acquisition of functional mtDNA |
Strakova et al., 2016, 2020
|
|
Bladder cancer |
Increased invasiveness |
Lu et al., 20178 |
|
Acute respiratory distress syndrome |
Anti-inflammatory and highly phagocytic macrophage phenotype resulting in amelioration of lung injury |
Morrison et al., 2017
|
|
PD |
Acquisition of functional mitochondria |
Rostami et al., 2017
|
|
Oxygen-glucose deprivation |
Restoring brain endothelial energetics and barrier integrity |
Hayakawa et al., 2018
|
|
Hypoxia/reoxygenation injury |
Attenuation of CM apoptosis |
Shen et al., 2018
|
|
Asthma |
Alleviated asthmatic inflammation |
Yao et al., 2018
|
|
Diabetic nephropathy |
Structural and functional restoration of renal proximal tubular epithelial cells |
Konari et al., 2019
|
|
MM |
Enhanced mitochondrial metabolism, protumoral effect |
Marlein et al., 2019
|
|
Neonatal cardiomyopathy |
Improvement of CM bioenergetics and viability in male rats exposed to pre-gestational diabetes |
Louwagie et al., 2021
|
|
Lung carcinoma |
Enhancement of metastatic potential during tumor progression |
Takenaga et al., 2021
|
|
Cerebral ischemia |
Increased neuronal survival and improved metabolism |
Tseng et al., 2021
|
|
Glioblastoma |
Adaptation of non-tumor astrocytes to tumor-like metabolism and hypoxia conditions |
Valdebenito et al., 2021
|
|
AD |
Increased transmitophagy of defective neuronal mitochondrial, potential alleviation of AD pathology and symptoms |
Lampinen et al., 2022
|
Non-pathological |
Cardiac homeostasis |
Preserved metabolic stability and organ function |
Nicolas-Avila et al., 2020
|
|
White adipose tissue homeostasis |
Metabolic homeostasis, impairment leads to obesity |
Brestoff et al., 2021
|
|
Metabolic preconditioning of the heart |
Cardio-protection against lipotoxic or ischemic stresses elicited by obesity |
Crewe et al., 2021
|
|
Wound healing |
Promotion of pro-angiogenic activity of MSCs via their metabolic remodeling |
Levoux et al., 2021
|