BioPACIFIC MIP is a User Facility dedicated to Materials Discovery through Laboratory Automation and Bio-derived Feedstocks. #NSFfunded@CNSI_UCSB@CNSIatUCLA
Congratulations to our Director Javier Read de Alaniz on being named a 2025 @aaas Fellow. Recognized for pioneering light-responsive organic materials that change shape, color, and function under visible light — enabling advances in smart materials. @ReadAlanizteam
Light-controlled cardiac pacing using polymer bioelectronics ⚡💡
An optoelectronic biohybrid converts visible light into photocurrent, enabling gene modification–free control of cardiomyocyte contraction and structural remodeling.
Read more: doi.org/10.1016/j.celbio.202…
Final day at #ACSSpring2026 🎯
BioPACIFIC users are presenting:
• Injectable polymers for imaging
• Coacervate emulsions
• Peptide–polymer systems for cardiac applications
Materials → real-world impact.
#Biomaterials#Polymers#MaterialsScience
Day 2 at #ACSSpringMeeting:
Catch @HawkerNation and Parker Morris presenting advances in polymer synthesis next-gen materials design 🧪
From precision chemistry to scalable platforms—this is materials innovation in action.
📍 Atlanta
#Polymers#MaterialsScience
BioPACIFIC users are kicking off #ACSSpring2026 🔬
From plastic depolymerization → bioinspired polymers → RNA protocells, today’s talks highlight how advanced materials tools enable breakthroughs in sustainability soft matter.
📍 Atlanta | Come see our users in action
🚀 Heading to #ACSSpring2026?
Don’t miss:
Automation & AI in Polymer Science
📅 March 24–25
📍 Marriott Marquis
BioPACIFIC MIP is proud to sponsor this session featuring leaders in:
🤖 Autonomous labs
🧠 ML for materials
🧪 Functional polymers
#PolymerScience#AI
📢 Polymer scientists — help train AI for sustainable polymers.
Use the new MAPS mobile app to evaluate bio-derived molecules as potential polymer building blocks and contribute your expertise to a growing ML training dataset.
Download the app:
bit.ly/46GfT72
Cross-link location matters.
Center-placed cross-links in acrylic PSAs significantly improve peel shear strength vs. random networks — without changing composition or loading.
doi.org/10.1021/acs.macromol…
New research from @clemo_11 lab demonstrates cell-laden supramolecular hydrogels designed for high-shear delivery. Sprayable peptide nanofiber gels preserve cell viability & mechanical integrity. Peptides were synthesized at the @BioPACIFICMIP facility.
doi.org/10.1021/acs.chemmate…
New research reveals how microscale structure controls the mechanics of “pink berry” biofilms. Nanoindentation imaging show a soft EPS matrix surrounding stiffer bacterial microcolonies, shaping bulk viscoelastic behavior.
doi.org/10.1007/s11249-025-0…
A molecular coating helps bilayer graphene regain its quantum electronic behavior while maintaining performance.
4D-STEM at BioPACIFIC MIP revealed how the thin film’s structure influences transport properties.
Read: doi.org/10.1088/2053-1583/ae…#Graphene#QuantumMaterials
A multiscale workflow to build bottom-up coarse-grained models for sequence-specific polypeptoids. Validated against all-atom simulations and DEER experiments, this approach enables in silico screening across vast sequence spaces.
doi.org/10.1063/5.0299938@JChemPhys
How do you tune protein release without UV, heat, or solvents?
Srivastava Group @UCLA introduces triblock PEC hydrogels with precisely adjustable swelling & release—validated by SAXS.
💡 A smart platform for bio-delivery @Biomac_ACS
🔗
doi.org/10.1021/acs.biomac.5…
BioPACIFIC MIP @UCSB is live at OASIS! 🧪
✅ First safety walkthrough
✅ First users trained
✅ Instruments online—with more every day
Want to use the new space? Contact us to get trained!
(SAXS microrheology still in Elings)
#softmaterials#userfacilities#UCSB
🖨️ New from @UCSB@ACS_AMI: A printable, stretchable, conductive ink made by electrostatic complexation of conjugated & bottlebrush polyelectrolytes!
Ideal for thick, patterned bioelectronic sensors & conductive adhesives.
🔗 pubs.acs.org/doi/10.1021/acs…#PolymerScience