FORMULATION ARTICLES
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A Smarter Switch: Reprogramming CIP Systems With Nanobodies Unlocks New Control Over Cell Signaling
Engineered nanobodies reprogram CIP systems, enabling precise, reversible control of protein interactions, signaling pathways, and gene expression without redesigning core chemistry.
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Can Making mRNA More "Rigid" Unlock The Next Leap In RNA Medicines?
Can stabilizing mRNA structure unlock better performance? New strategies aim to “rigidify” mRNA, improving translation, stability, and manufacturability while reducing variability across conditions.
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Rethinking The Oligonucleotide Backbone: A New Approach To RNA Therapeutic Design
Backbone engineering reframes RNA design, enabling programmable charge, uptake, and delivery — transforming oligonucleotides from fixed structures into tunable, multifunctional therapeutic systems.
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AI Foundation Models For RNA Biology
AI foundation models are transforming RNA biology by learning sequence–structure–function relationships, enabling accurate predictions, scalable discovery, and deeper insight into RNA regulation and design.
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Nanosystems And Rare Diseases: Opportunities And Limitations
Nanosystems offer unique capabilities, enabling researchers to design precise, versatile delivery systems that address key challenges in rare diseases.
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The Potency Chains Of Events For mRNA/LNP Therapeutics
Potency in mRNA/LNP therapies depends on two chains: manufacturing/cold chain integrity and complex in vivo delivery. Breakdowns at any step — from stability to translation — can limit efficacy and safety.
ARTICLES, APP NOTES, CASE STUDIES, & WHITE PAPERS
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Learn about a continuous manufacturing platform designed to help overcome challenges in domestic pharmaceutical production, including scale-up barriers and production variability.
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The shift from "scale-up" to "scale-out" in genetic medicine enhances production speed, revolutionizing pharmaceutical manufacturing and accelerating life-saving therapies for global patient populations.
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Define a process for your unique mRNA with this interactive guide to pDNA, mRNA, and LNP. Overcome challenges with solutions that can help you develop a next-generation production strategy.
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We discuss the process of transfection and highlight two highly effective vectors for both in vitro and in vivo gene therapy applications.
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In this paper, we present the foundation of an mRNA-LNP platform for encoding and expressing therapeutic antibodies in vivo, eliminating the need for costly and time-consuming manufacturing.
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RNA therapeutics hold immense promise for precision treatment, but their development faces challenges. A CDMO with adaptable platforms and flexible timelines can help reduce time and costs.
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Explore the necessary components of a smooth tech transfer for LNP-based drugs, including the variables that impact LNP formulation and the outsourcing strategies needed to avoid common pitfalls.