Zeolite Disassembly
Zeolite Disassembly - Related Videos
08:26
Synthesis of Zeolites Using the ADOR (Assembly-Disassembly-Organization-Reassembly) Route
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Cited by 6 •
2016
A protocol for the preparation of novel zeolites by the ADOR (Assembly-Disassembly-Organization-Reassembly) synthetic route is presented.
07:13
Nanostructured Ag-zeolite Composites as Luminescence-based Humidity Sensors
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Cited by 9 •
2016
A protocol for the synthesis of moisture-responsive luminescent Ag-zeolite composites is described in this report.
02:49
Detection of Biofilm Disassembly Through a Dispersion Assay
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2025
The video showcases a biofilm dispersion assay using a multi-well plate. Buffer and glucose treatment disassemble the biofilm, releasing bacteria, while bile salts induce stress, retaining bacteria in the protective extracellular polymeric substance. Higher dispersion with buffer and glucose confirms successful biofilm disassembly, estimated by colony forming units measurement.
09:46
Adsorption Device Based on a Langatate Crystal Microbalance for High Temperature High Pressure Gas Adsorption in Zeolite H-ZSM-5
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Cited by 1 •
2016
A protocol for high-temperature and high-pressure gas adsorption measurements on zeolite H-ZSM-5 using an adsorption measurement device based on a langatate crystal microbalance is presented. Prior to the adsorption measurements, the synthesis of zeolite H-ZSM-5 on the langatate crystal microbalance sensor by the steam-assisted crystallization (SAC) method is demonstrated.
01:35
Disassembly of Intermediate Filaments
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2023
Intermediate filaments (IFs) do not undergo spontaneous disassembly. Enzymes, kinases, and phosphatases add and remove phosphates from specific sites to regulate their disassembly. The IF concentration in the cytoplasm also regulates the disassembly. If the concentration crosses a threshold, it activates the protein kinases in the vicinity, allowing the phosphorylation of IFs. Keratin proteins, found at the cell periphery near cell junctions, undergo a cycle of assembly and disassembly. In Type...
FAQs
These treatments alter the silicon–oxygen–aluminum network through different chemical environments. Hydrothermal conditions provide heat and water, while acidic or basic media promote framework disruption under chemically distinct conditions. The extent of breakdown depends on how treatment conditions are regulated, allowing researchers to obtain smaller structural units or more amorphous components without treating all frameworks as equally stable.
The relative framework composition influences how readily the material loses structural order and how its properties change during treatment. Because silicon, oxygen, and aluminum form the network being disrupted, composition helps govern framework stability, pore structure, and surface chemistry. Controlling these relationships is essential when targeting a particular post-disassembly material behavior.
Ion exchange is a distinct route for modifying the zeolite framework environment, whereas acidic and basic media directly provide chemical conditions that can disrupt the silicon–oxygen–aluminum network. The selected route affects the balance between structural breakdown and property modification. Comparing these approaches helps researchers choose conditions suited to preserving or changing pore and surface characteristics.
Disassembly can change the material’s framework stability, pore structure, surface chemistry, and physical form. A crystalline microporous framework may yield smaller structural units or amorphous components, producing a different platform for interacting with molecules. Monitoring these changes helps connect treatment conditions with the adsorption, separation, sensing, or delivery behavior under investigation.
A study generally begins by selecting a zeolite framework and a treatment route, such as hydrothermal processing, acidic or basic media, or ion exchange. Researchers then regulate the conditions to control framework stability and pore evolution, followed by assessment of the resulting structural units or amorphous material. The workflow links preparation conditions to chemical and physical properties.
They may use these materials when a tunable porous platform is needed for adsorption, molecular separation, biosensing, or delivery studies. Disassembly changes the available structural and surface features, which can support different interactions with target molecules. The approach is therefore useful when the original crystalline framework does not provide the desired combination of porosity and surface chemistry.
In neuroscience-related materials research, modified zeolites can serve as platforms for studies involving neural compounds. Their adjustable pore structure and surface chemistry may be relevant to adsorption, separation, biosensing, or delivery investigations connected with the nervous system. The scientific value lies in relating framework treatment and composition to material compatibility and function in those studies.