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Accelerated drug development insights using AI/digital twins, advanced bioanalysis, targeted delivery, and optimized formulation stability models.
In this PharmTech video feature, we highlight the week’s industry news in an easy-to-consume, fun format. New roundups will drop every Friday, so be sure to come back each week.
Collectively, the week’s coverage discusses the pharmaceutical industry’s recent developments and current regulatory landscape. Read on for recaps of each story we’ve covered.
Digital twins leverage machine learning to accurately forecast human lung function across numerous parameters, successfully revealing therapeutic effects missed by conventional preclinical studies. This methodology accelerates drug discovery by simulating the untreated outcome, directly supporting advances in precision therapeutics.
In-silico modeling incorporating artificial intelligence (AI) and molecular dynamics guides early formulation for poorly soluble drug candidates, which represent a majority of compounds in development. This approach efficiently identifies optimal solubilization methods and excipients, minimizing reliance on time-consuming empirical screening.
The integration of advanced platforms like flow cytometry and polymerase chain reaction requires an a priori, SOP-driven assay validation for regulated use, challenging existing guidance precedents. High-resolution mass spectrometry is increasingly utilized for quantitative bioanalysis of large molecules, including oligonucleotides and biologics, due to its enhanced selectivity and mass accuracy.
A Six Sigma Define, Measure, Analyze, Improve, Control-based workflow rapidly identifies and classifies particulates using microscopy and spectroscopic analysis for efficient root cause analysis in biologics manufacturing. This integrated approach leads to timely process improvements, demonstrating how modifying shear stress from mixing can preserve solution homogeneity and product quality.
Three-dimensional printing facilitates patient-centric drug design by allowing for personalized dosing and versatile release profiles. The technology successfully created a budesonide tablet with targeted delayed release to the ileum, validating its potential to significantly reduce in-vivo variability in drug delivery.
Novel delivery platforms address the critical challenge of achieving therapeutic exposure in the central nervous system by efficiently crossing the blood-brain barrier. This focus aligns with the trend toward vertical integration in biopharma, combining R&D and manufacturing capabilities to accelerate rare disease timelines.
Robust scale-down agitation models simulate mechanical stress essential for assessing and preventing protein aggregation in high-concentration biologics. For early-stage testing, an orbital shaker with horizontal 2R vials provides a reliable, scientifically justified method for stress evaluation.
Digital twins establish a personalized digital control arm by generating the hypothetical untreated effects for an organ receiving therapy. This innovation reduces reliance on large cohort analyses, minimizing the need for human organs as controls and potentially accelerating clinical trials.
Validation of biomarker assays must be based on the "context of use" rather than fixed criteria, given the variances in data purpose and the endogenous presence of the analyte. Nevertheless, essential performance metrics like accuracy, precision, sensitivity, and matrix parallelism must still be characterized to meet the intended data use.