Assessment of Nervous System of High-risk Infants: 236 Cases Report / 中国康复理论与实践

Objective:To investigate evaluation methods to predict the outcome of nervous system development in high-risk infants. Methods:From March, 2015 to March, 2016, 336 high-risk infants were enrolled. They were assessed by General Movements (GMs) Quality Assessment, 0~1 Years Old 20 Items Neuromotor Assessment and Gesell Developmental Schedules. Results:A total of 236 infants finishied the study. GMs Quality Assessment showed that 203 cases were normal and 33 cases were abnormal in the writhing movements stage; 218 cases were normal and 18 cases were abnormal in the fidgety movemonts stage. 0~1 Years Old 20 Items Neuromotor Assessment showed that 202 cases were normal and 34 cases were abnormal. Gesell Developmental Schedules showed that 12 cases were abnormal. Conclusion:The combination of GMs Quality Assessment, 0~1 Years Old 20 Items Neuromotor Assessment and Gesell Developmental Schedules could better predict the nervous system development of high-risk infants.

A wheat PI4K gene whose product possesses threonine autophophorylation activity confers tolerance to drought and salt in Arabidopsis.

Phosphoinositides are involved in regulation of recruitment and activity of signalling proteins in cell membranes. Phosphatidylinositol (PI) 4-kinases (PI4Ks) generate PI4-phosphate the precursor of regulatory phosphoinositides. No type II PI4K research on the abiotic stress response has previously been reported in plants. A stress-inducible type II PI4K gene, named TaPI4KIIγ, was obtained by de novo transcriptome sequencing of drought-treated wheat (Triticum aestivum). TaPI4KIIγ, localized on the plasma membrane, underwent threonine autophosphorylation, but had no detectable lipid kinase activity. Interaction of TaPI4KIIγ with wheat ubiquitin fusion degradation protein (TaUDF1) indicated that it might be hydrolysed by the proteinase system. Overexpression of TaPI4KIIγ revealed that it could enhance drought and salt stress tolerance during seed germination and seedling growth. A ubdkγ7 mutant, identified as an orthologue of TaPI4KIIγ in Arabidopsis, was sensitive to salt, polyethylene glycol (PEG), and abscisic acid (ABA), and overexpression of TaPI4KIIγ in the ubdkγ7 mutant compensated stress sensitivity. TaPI4KIIγ promoted root growth in Arabidopsis, suggesting that TaPI4KIIγ might enhance stress resistance by improving root growth. Overexpression of TaPI4KIIγ led to an altered expression level of stress-related genes and changes in several physiological traits that made the plants more tolerant to stress. The results provided evidence that overexpression of TaPI4KIIγ could improve drought and salt tolerance.