Search alternatives:
significant non » significant gap (Expand Search), significant amount (Expand Search)
point decrease » point increase (Expand Search)
long decrease » nn decrease (Expand Search), fold decrease (Expand Search), coping decreased (Expand Search)
non decrease » nn decrease (Expand Search), note decreased (Expand Search), mean decrease (Expand Search)
significant non » significant gap (Expand Search), significant amount (Expand Search)
point decrease » point increase (Expand Search)
long decrease » nn decrease (Expand Search), fold decrease (Expand Search), coping decreased (Expand Search)
non decrease » nn decrease (Expand Search), note decreased (Expand Search), mean decrease (Expand Search)
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Average % peptides counts for different classes of proteins at different germination time points and significant p-value indicated as compared to soaked sample (*p< 0.05, **p<0.01, ***p<0.001) for brown non-trypsinised with shades of green showing increase and red showing decrease with respect to soaked.
Published 2024“…<p>Average % peptides counts for different classes of proteins at different germination time points and significant p-value indicated as compared to soaked sample (*p< 0.05, **p<0.01, ***p<0.001) for brown non-trypsinised with shades of green showing increase and red showing decrease with respect to soaked.…”
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Average of % peptides counts for different classes of proteins at different germination time points and significant p-value indicated as compared to soaked sample (*p< 0.05, **p<0.01, ***p<0.001) for garbanzo non-trypsinised with shades of green showing increase and red showing decrease with respect to soaked.
Published 2024“…<p>Average of % peptides counts for different classes of proteins at different germination time points and significant p-value indicated as compared to soaked sample (*p< 0.05, **p<0.01, ***p<0.001) for garbanzo non-trypsinised with shades of green showing increase and red showing decrease with respect to soaked.…”
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Changepoint analysis in comparison of MarBTN-specific eDNA and cancer in hemolymph.
Published 2025Subjects: -
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Modeling the relationship between cancer level in hemolymph and MarBTN in tank eDNA.
Published 2025Subjects: -
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MarBTN-specific eDNA detection in each clam that was followed for MarBTN in hemolymph and eDNA.
Published 2025Subjects: -
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Detection of MarBTN-specific eDNA in tank water at late stages of MarBTN progression.
Published 2025Subjects: -
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All data points from Fig 2.
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. …”
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All data points from Fig 5.
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. …”
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All data points from Fig 8.
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. …”
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All data points from Fig 3.
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. …”
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All data points from Fig 1.
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. …”
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All data points from Fig 4.
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. …”
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All data points from Fig 9.
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. …”
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All data points from Fig 7.
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. …”