Search alternatives:
significant clusters » significant cause (Expand Search), significant changes (Expand Search), significant factors (Expand Search)
changes decrease » change increases (Expand Search), largest decrease (Expand Search)
larger decrease » marked decrease (Expand Search)
significant clusters » significant cause (Expand Search), significant changes (Expand Search), significant factors (Expand Search)
changes decrease » change increases (Expand Search), largest decrease (Expand Search)
larger decrease » marked decrease (Expand Search)
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Droplet-based microfluidics can be used to model clustered bacterial growth.
Published 2025Subjects: -
130
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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132
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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133
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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134
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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135
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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136
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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137
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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138
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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139
Real-Time Polymer Viscosity–Catalytic Activity Relationships on the Microscale
Published 2022“…Consistent with this diffusional-access model, these viscosity changes were found to be monomer-dependent, showing larger changes in microenvironment viscosity in cross-linked polydicyclopentadiene compared to non-crosslinked polynorbornene. …”
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