Background: Phage therapy offers a promising alternative for treating serious infections, including diabetic foot ulcers (DFUs), through the lytic action of phages. This randomized double-blind study was conducted to evaluate the safety and tolerability of the TP-102 bacteriophage cocktail in patients with DFUs non-infected and infected with Staphylococcus aureus, Pseudomonas aeruginosa, and/or Acinetobacter baumannii.
Methods: Nineteen participants with DFUs were randomized after susceptibility testing.
Electrical stimulation of the spinal cord is a potent means for activating mammalian stepping in the absence of the descending control from the brain. Previously, we have shown that stimulation of pain delivering (Aδ) sacrocaudal afferents (SCA) has a powerful capacity to activate the sacral and lumbar rhythmogenic networks in the neonatal rodent spinal cord. Relatively little is known about the neural pathways involved in activation of the locomotor networks by Aδ afferents, on their mechanism of action and on the possibility to modulate their activity.
View Article and Find Full Text PDFA signal transducer and activator of transcription-1-deficient patient presented with prolonged fever, cachexia, anemia, hypoalbuminemia and finally relapsing debilitating mycobacterial osteomyelitis while receiving a previously effective antimycobacterial treatment. Progression despite rigorous workup and multiple antibiotics prompted shotgun metagenomics revealing adenovirus in liver samples. Brincidofovir led to a complete, sustained clinical recovery, including osteomyelitis, probably attributed to reversal of adenovirus-induced immune dysregulation.
View Article and Find Full Text PDFDeciphering neuronal pathways that reactivate spinal central pattern generators (CPGs) and modulate the activity of spinal motoneurons in mammals in the absence of supraspinal control is important for understanding of neural control of movement and for developing novel therapeutic approaches to improve the mobility of spinal cord injury patients. Previously, we showed that the sacral and lumbar cholinergic system could potently modulate the locomotor CPGs in newborn rodents. Here, we review these and our more recent studies of sacral relay neurons with lumbar projections to the locomotor CPGs and to lumbar motoneurons and demonstrate that sacral and lumbar cholinergic components have the capacity to control the frequency of the locomotor CPGs and at the same time the motor output of the activated lumbar motoneurons during motor behavior.
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