Thiol-ene Resin
Thiol-ene Resin - Related Videos
02:38
Anion Exchange Resin–Based Detection of Viruses from Bioaerosols
0 Views •
2026
Source: Schaeffer, J. W., Chandler, et al. Detection of Viruses from Bioaerosols Using Anion Exchange Resin. J. Vis. Exp. (2018).This video demonstrates the detection of viruses from bioaerosols using an anion exchange resin. A liquid impinger containing the resin is used to capture viruses from the air. The resin is collected and treated with a virus lysis buffer containing carrier RNA. The lysate is transferred to a microcentrifuge tube for viral RNA isolation, followed by qRT-PCR to amplify...
11:09
Constructing Thioether/Vinyl Sulfide-tethered Helical Peptides Via Photo-induced Thiol-ene/yne Hydrothiolation
0 Views •
Cited by 3 •
2018
We present a protocol for the construction of thioether/vinyl sulfide-tethered helical peptides using photo-induced thiol-ene/thiol-yne hydrothiolation.
07:51
Acrylic Resin Molding Based Head Fixation Technique in Rodents
0 Views •
Cited by 4 •
2016
Traditional head fixation techniques have used metallic frames attached on the skull as an interface for head fixation apparatus. This protocol demonstrates a frameless, acrylic resin molding based head fixation technique for behavioral tasks in rodents.
07:05
Clear Resin Casting of Arthropods for Use in Education, Outreach, and Research
0 Views •
2026
Here we show key steps in the process of creating high-quality, resin-embedded arthropods for educational instruction and outreach.
07:16
Resin-Assisted Capture Coupled with Isobaric Tandem Mass Tag Labeling for Multiplexed Quantification of Protein Thiol Oxidation
0 Views •
Cited by 9 •
2021
Protein thiol oxidation has significant implications under normal physiological and pathophysiological conditions. We describe the details of a quantitative redox proteomics method, which utilizes resin-assisted capture, isobaric labeling, and mass spectrometry, enabling site-specific identification and quantification of reversibly oxidized cysteine residues of proteins.
FAQs
During curing, light activates the photoinitiator, which generates radicals. These reactive species drive thiol molecules to add across ene groups, linking the resin components through a step-growth process. Because this reaction proceeds efficiently throughout the material, it can produce a relatively uniform crosslinked network, a feature important when consistent biomaterial properties are required.
Resin composition provides the main route for adjusting the resulting network. Changing the formulation can tune stiffness and swelling, while also influencing the material’s structure and biological presentation. This tunability lets researchers select a network suited to a particular engineered environment rather than treating mechanical behavior as fixed after curing.
Light and the photoinitiator provide temporal and spatial control over network formation. Curing can be activated where and when illumination is applied, rather than throughout the material indiscriminately. That control underlies photopatterning and microfabrication, allowing researchers to create defined structures while retaining the resin’s rapid network-forming behavior.
To make a photopatterned hydrogel, researchers combine the thiol- and ene-containing resin with a photoinitiator, expose selected regions to light, and allow radical-mediated crosslinking to form the intended network. The illuminated pattern determines where material is cured. This workflow supports precise control of hydrogel geometry for engineered biomaterials and microfabricated devices.
When designing a thiol-ene biomaterial, researchers can evaluate several linked outcomes: network structure, stiffness, swelling, and biological presentation. Adjusting the resin composition and curing pattern changes how the material is organized and how it behaves as a hydrated scaffold. These measurements help connect formulation choices with the requirements of tissue-engineering or cell-based models.
In bioengineering, the material is useful when researchers need spatially defined, tunable polymer networks. Supported applications include photopatterned hydrogels, three-dimensional cell encapsulation, tissue-engineering scaffolds, and microfabricated devices. Its relevance extends to regenerative-medicine studies and in vitro model development, where controlled structure, mechanics, swelling, and biological presentation can shape the engineered environment.