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In silico p53 LNP formulation platform for predicting and ranking ionizable lipids, estimating mRNA delivery performance, and recommending cancer-specific targeting strategies from TP53 mutations.

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LNPredict

In Silico Nanocarrier Formulation Platform for TP53-Targeted Cancer Therapeutics

LNPredict is an open-access, computational design and biophysical simulation platform for engineering lipid nanoparticle (LNP) and nanocarrier formulations targeting TP53 mutations in solid tumours.

Developed as the companion platform to the translational review:

Research software: Computational predictions are intended for research, preclinical hypothesis generation, and formulation optimization. They do not constitute clinical recommendations.


Overview

Overcoming the traditional "undruggable" dogma of TP53 requires delivering macromolecular nucleic acids past three major pharmacological barriers:

  1. The ~0.7% EPR bottleneck: Median passive tumour accumulation remains under 1% ID/g across solid tumours.
  2. Endosomal entrapment: Conventional LNPs release only 1–4% of encapsulated cargo into the cytosol.
  3. Hepatic clearance & liver tropism: Apolipoprotein E (ApoE) opsonization shuttles >80% of unfunctionalized particles to the liver.

LNPredict operationalises the biophysical rules of nanocarrier delivery into an interactive in silico pipeline—connecting clinical TP53 mutations, multimodal RNA/DNA payloads, lipid architectures, active surface functionalization, and organ tropism into a single unified workflow.

                  TP53 Mutation Profile (LOF vs GOF)
                                  │
                                  ▼
           Therapeutic Cargo Selection & Sequence Engine
   [ p53 mRNA │ mutant siRNA │ Dual siRNA+mRNA │ miR-34a │ CRISPR-Cas9 ]
                                  │
                                  ▼
                   Nanocarrier Architecture (Table 1)
 [ Ionizable LNP │ Cationic Liposome │ SLN │ NLC │ Hybrid Lipid-Polymer ]
                                  │
                                  ▼
                     Biophysical Formulation Core
      ┌───────────────────────────┴───────────────────────────┐
      ▼                                                       ▼
Ionizable Lipid Library                             Formulation Parameters
• Apparent pKa (target: 6.0–7.0)                    • N/P Molar Ratio
• Mol Weight, LogP, Volume                          • Helper Lipid (DOPE/DSPC)
• Ionization charge curves                          • Cholesterol & PEG-lipid mol%
      └───────────────────────────┬───────────────────────────┘
                                  │
                                  ▼
                   Predictive Biophysics Engine
• Hydrodynamic Size (nm) & Polydispersity Index (PDI)
• Encapsulation Efficiency (%) & Total Payload Capacity
• Predicted Endosomal Escape Score & pKa Suitability
• Microfluidic Flow Parameters (Total Flow Rate & FRR)
                                  │
                                  ▼
              Active Targeting & Biodistribution Engineering
• Table 2 Surface Ligands (Folate, Tf, cRGDfK, Trastuzumab, Cetuximab, AS1411, HA)
• SORT (Selective Organ Targeting) Lipid Tuning (Liver ➔ Spleen / Lung Tropism)
• Stimuli-Responsive Release Kinetics (pH, Redox/GSH, Thermo, Ultrasound, Enzyme)
• Anti-PEG Pre-existing Antibody Risk Scoring
• Immune Checkpoint Synergy (anti-PD-1 / KEYNOTE-942 Context)
                                  │
                                  ▼
               Real-Time Visualization & Validation
• 3D Interactive Particle Cross-Section (Cut-away internal core view)
• 3D Molecular Lipid & Protein Viewers (1TUP p53 hotspot mapping)
• Parity Plots & Benchmarks vs 20 Published Formulations (MAE/RMSE/R²)
• Exportable Research Dossier (JSON / Print-Ready PDF Spec)

About

In silico p53 LNP formulation platform for predicting and ranking ionizable lipids, estimating mRNA delivery performance, and recommending cancer-specific targeting strategies from TP53 mutations.

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