Showing 1 - 20 results of 3,882 for search '(( significant ((long decrease) OR (point decrease)) ) OR ( significant ns decrease ))', query time: 0.50s Refine Results
  1. 1

    Summary of the effect of MPDD on SDLP across all participants, and also participants categorized by driving styles (“NS” (no significant), “+” (significant increase), and “-” (significant decrease)). by Mobina Faqani (22783963)

    Published 2025
    “…<p>Summary of the effect of MPDD on SDLP across all participants, and also participants categorized by driving styles (“NS” (no significant), “+” (significant increase), and “-” (significant decrease)).…”
  2. 2
  3. 3

    Summary of the effect of MPDD on ART and TIBL across all participants, and also participants categorized by driving styles (“NS” (no significant), “+” (significant increase), and “-” (significant decrease). by Mobina Faqani (22783963)

    Published 2025
    “…<p>Summary of the effect of MPDD on ART and TIBL across all participants, and also participants categorized by driving styles (“NS” (no significant), “+” (significant increase), and “-” (significant decrease).…”
  4. 4
  5. 5

    HFD decreases intermediate-term memory. by Tong Yue (6033305)

    Published 2025
    “…<p>(A) The survival rate of 10d <i>Canton-S</i> fed with ND or HFD was observed for 7 days. There was no significant decline in the survival rate in flies fed with HFD compared with ND (n = 10 vials, containing 20 flies at each time point). …”
  6. 6

    HFD decreases ITM and alters metabolic homeostasis. by Tong Yue (6033305)

    Published 2025
    “…Two-way ANOVA, n.s., not significant, ** p < 0.01). <b>(F)</b> Long-term memory (LTM) was significantly decreased in the HFD group. …”
  7. 7
  8. 8
  9. 9
  10. 10
  11. 11

    All data points from Fig 2. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  12. 12

    All data points from Fig 5. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  13. 13

    All data points from Fig 8. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  14. 14

    All data points from Fig 3. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  15. 15

    All data points from Fig 1. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  16. 16

    All data points from Fig 4. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  17. 17

    All data points from Fig 9. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  18. 18

    All data points from Fig 7. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  19. 19

    All data points from Fig 6. by Sara Hijazi (21656615)

    Published 2025
    “…Specifically, we observed that demyelination caused an impairment in the ability of PV interneurons to sustain high-frequency firing associated with a substantial decrease in Kv3-specific currents. We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”
  20. 20