Multifunctional Monomers
Multifunctional Monomers - Related Videos
09:47
Isolation and Compositional Analysis of Plant Cuticle Lipid Polyester Monomers
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Cited by 32 •
2015
Lipid polyesters constitute the structural components of two cell wall modifications, the plant cuticle and suberin-containing diffusion barriers. In this video, we describe a method to depolymerize cutin from whole delipidated leaves. The method can be applied to investigating mutants compromised in either cutin or suberin biosynthesis.
06:58
A Structured Rehabilitation Protocol for Improved Multifunctional Prosthetic Control: A Case Study
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Cited by 34 •
2015
As prosthetic development moves towards the goal of natural control, harnessing amputees’ inherent ability to learn new motor skills may enable proficiency. This manuscript describes a structured rehabilitation protocol, which includes imitation, repetition, and reinforcement learning strategies, for improved multifunctional prosthetic control.
08:04
Multifunctional Hybrid Fe2O3-Au Nanoparticles for Efficient Plasmonic Heating
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Cited by 17 •
2016
We describe the synthesis and properties of multifunctional Fe2O3-Au nanoparticles produced by a wet chemical approach and investigate their photothermal properties using laser irradiation. The composite Fe2O3-Au nanoparticles retain the properties of both materials, creating a multifunctional structure with excellent magnetic and plasmonic properties.
09:02
Using Polystyrene-block-poly(acrylic acid)-coated Metal Nanoparticles as Monomers for Their Homo- and Co-polymerization
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Cited by 1 •
2015
We report protocols for “polymerizing” various types of polymer-encapsulated metal nanoparticles into long chains of “homo-“ and “co-polymers”.
09:51
One Minute, Sub-One-Watt Photothermal Tumor Ablation Using Porphysomes, Intrinsic Multifunctional Nanovesicles
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Cited by 14 •
2013
We developed novel intrinsic multifunctional nanovesicles called porphysomes, which have structure-dependent fluorescence self-quenching and unique photothermal properties, thus functioning as potent photothermal therapy agents. We formulated porphysomes using high pressure extrusion and investigated their photothermal therapy efficacy in a xenograft tumor model.
FAQs
The number and arrangement of reactive sites determine how polymer chains connect. Monomers with multiple sites can link material segments in several directions, promoting branching, cross-linking, or three-dimensional network formation instead of predominantly linear growth. This structural control matters because network architecture directly influences properties such as strength, flexibility, durability, and chemical resistance in the final material.
Multifunctional Monomers can participate in either step-growth or chain-growth polymerization, but the connection pattern depends on the selected mechanism. These routes provide different ways for reactive sites to connect monomer units during polymer formation. Recognizing the mechanism helps researchers relate the polymerization process to the resulting architecture, whether the target is a branched structure, cross-linked network, or three-dimensional material.
Reaction conditions work together with monomer functionality to control how extensively reactive sites connect. Adjusting these factors helps researchers tune the balance between branching, cross-linking, and network formation rather than obtaining an unintended structure. That control is important because changes in architecture can alter the material’s strength, flexibility, durability, and chemical resistance, affecting its suitability for a specific use.
A practical design process starts by matching the monomer’s functionality to the desired macromolecular architecture and material properties. Researchers then select a suitable polymer-forming mechanism, such as step-growth or chain-growth polymerization, and control the reaction conditions. The resulting structure can be assessed through its targeted properties, helping refine materials for performance requirements such as flexibility, durability, or chemical resistance.
Multifunctional Monomers support the development of resins, coatings, adhesives, hydrogels, and composite materials. Their ability to form branched or cross-linked structures allows researchers to tailor performance for different product requirements. Depending on the controlled architecture, the resulting material may be designed for greater strength, flexibility, durability, or chemical resistance, making the approach useful across manufacturing and advanced material development.
In biomedical materials, multifunctional monomers provide a way to construct polymer networks with selected physical and chemical characteristics. In advanced polymer research, scientists use them to investigate how functionality and reaction conditions influence three-dimensional structures and performance. This relationship between molecular design and material behavior supports the development of hydrogels, composites, and other systems requiring tailored properties.