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Keyphrases
Metal-organic Frameworks (MOFs)
100%
Particle Size
100%
Defect Sites
100%
Enhanced Hydrolysis
100%
Site Density
100%
Hydrolysis Rate
100%
UiO-66
100%
Framework Catalysts
100%
Zr(IV)
100%
Active Sites
33%
Catalytic Activity
33%
Hydrolysis
33%
Methyl-paraoxon
33%
Reaction Process
22%
High Catalytic Activity
22%
Computational Simulation
22%
Polyethyleneimine
22%
Nerve Agents
22%
Efficient Synthesis
11%
Facile Synthesis
11%
High Performance
11%
Atmospheric Conditions
11%
Systems-based
11%
Military Applications
11%
High Concentration
11%
Temperature Conditions
11%
Solid State
11%
In(III)
11%
Humidity
11%
Reaction Mechanism
11%
Mixing Method
11%
Polymer Composites
11%
Density Functional Theory
11%
Acid Hydrolysis
11%
Turnover Frequency
11%
Severe Toxicity
11%
Hydroxide
11%
Catalytic System
11%
Small Particle Size
11%
Defect Density
11%
Severe Damage
11%
Humidity Conditions
11%
Absolute Temperature
11%
Detoxification
11%
Chelation
11%
Process-dependent
11%
Reactant Concentration
11%
Nucleophilic Attack
11%
Effect-based Methods
11%
Human Life
11%
Branch Type
11%
Chelation Effect
11%
Lewis Bases
11%
Scalable Synthesis
11%
Protective Equipment
11%
Nerve Agent Simulants
11%
Protective Suit
11%
Cotton Fabric
11%
Organic Bases
11%
Chemistry
Metal Organic Framework
100%
UiO-66
100%
Enzymatic Hydrolysis
100%
Catalyst Activity
44%
Nerve Agent
33%
Chelation
22%
Polyethyleneimine
22%
Density Functional Theory
11%
Protective
11%
Turnover Frequency
11%
Metal-Organic Framework
11%
Lewis Base
11%
Base Material
11%
Humidity
11%
Material Science
Density
100%
Metal-Organic Framework
100%
Enzymatic Hydrolysis
100%
Catalyst Activity
66%
Polyethyleneimine
33%
Polymer Composite
16%
Defect Density
16%
Cotton Fabric
16%
Chemical Engineering
Metal-Organic Frameworks
100%