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Conjugate Addition (1,4-Addition) vs Direct Addition (1,2-Addition)01:27

Conjugate Addition (1,4-Addition) vs Direct Addition (1,2-Addition)

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α,β-Unsaturated carbonyl compounds with two electrophilic sites, the carbonyl carbon, and the β carbon, are susceptible to nucleophilic attack via two modes: conjugate or 1,4-addition and direct or 1,2-addition.
Conjugate addition results in a thermodynamically stable product. The reaction retains the stronger C=O bond at the expense of the weaker C=C π bond. The process is slow as the β carbon is less electrophilic than the carbonyl carbon.
Direct addition products are...
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Steel Manufacturing01:26

Steel Manufacturing

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Steel manufacturing is a multi-stage process that begins by smelting iron ore into cast iron in a blast furnace. This initial stage involves layering iron ore with coke, a type of fuel, and crushed limestone within the furnace. The coke is ignited with a high volume of air, leading to the creation of carbon monoxide, which acts to reduce the iron ore to pure iron.
During this smelting process, limestone plays a crucial role by forming slag. Slag captures impurities within the molten iron, such...
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Conjugate Addition of Enolates: Michael Addition01:08

Conjugate Addition of Enolates: Michael Addition

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The attack of a nucleophile at the β carbon of an α,β-unsaturated carbonyl compound is called conjugate addition. Conjugate addition reactions of active methylene compounds, such as β-diketones, β-keto esters, β-keto nitriles, and α-nitro ketones, are called Michael addition reactions.
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Olefin Metathesis Polymerization: Ring-Opening Metathesis Polymerization (ROMP)01:16

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Ring-opening metathesis polymerization or ROMP involves strained cycloalkenes as starting materials. The mechanism of ROMP proceeds by reacting cycloalkene with Grubbs catalyst to give metallacyclobutane intermediate which undergoes a ring-opening reaction to form new carbene. The new carbene reacts with another molecule of cycloalkene. Repetition of these steps leads to the formation of an unsaturated open-chain polymer product. All these steps are reversible, however, relieving the ring...
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Actin Polymerization01:42

Actin Polymerization

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Actin polymerization occurs through the head-to-tail association of binding sites on monomeric actin or G-actin to form filamentous or F-actin. The polymerization can be divided into three phases ̶  nucleation, elongation, and steady-state phase.
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Updated: Feb 10, 2026

Fabricating Superhydrophobic Polymeric Materials for Biomedical Applications
09:22

Fabricating Superhydrophobic Polymeric Materials for Biomedical Applications

Published on: August 28, 2015

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Synergistic Advances in Additive Manufacturing and Surface Engineering for Polymeric Biomedical Devices.

Wei Juene Chong1, Antonella Sola2, Yuncang Li1

  • 1Centre for Additive Manufacturing, School of Engineering, RMIT University, Melbourne, Victoria 3001, Australia.

ACS Polymers Au
|February 9, 2026
PubMed
Summary
This summary is machine-generated.

Additive manufacturing (AM) of polymers enhances biomedical devices. Surface modifications improve cell interaction and functionality for tissue engineering and drug delivery applications.

Keywords:
additive manufacturingbioactive coatingbiomimetic coatingbone tissue engineeringdrug deliverymicrofluidicspolymersurface functionalizationsurface modificationtissue regeneration

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Area of Science:

  • Biomaterials Science
  • Polymer Science
  • Biomedical Engineering

Background:

  • Additive manufacturing (AM) of polymers offers patient-specific, complex biomedical device fabrication.
  • Medical-grade polymers often lack bioactive surfaces, limiting cell-material interactions crucial for tissue regeneration.
  • Current limitations hinder the full potential of AM in advanced biomedical applications.

Purpose of the Study:

  • To systematically review surface modification techniques for AM-compatible medical polymers.
  • To enhance the bioactivity and functionality of 3D-printed biomedical devices.
  • To highlight the synergistic potential of AM and surface engineering.

Main Methods:

  • Survey of physical, chemical, and biomimetic surface modification techniques.
  • Analysis of functional coatings incorporating bioactive molecules and nanoparticles.
  • Review of strategies for improving cell-material interactions and targeted functionalities.

Main Results:

  • Surface modifications can significantly improve the biocompatibility and performance of AM polymers.
  • Functional coatings offer antibacterial, anti-inflammatory, and pro-regenerative properties.
  • Synergy between AM and surface engineering enables unprecedented control over device architecture and bioactivity.

Conclusions:

  • Surface engineering is critical for unlocking the full potential of AM in biomedical applications.
  • Further research is needed to address sterilization compatibility and long-term stability for clinical translation.
  • The combination of AM and surface modification paves the way for next-generation biomedical devices.