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Pharmacological considerations for next-generation protein therapeutics in cardiovascular disease
1Department of Bioengineering, University of Pennsylvania, Philadelphia, Pennsylvania; Center for Precision Engineering for Health, University of Pennsylvania, Philadelphia, Pennsylvania.
Insights
Protein biologics show promise for cardiovascular diseases (CVD). Optimizing their design using pharmacokinetic principles is key to enhancing efficacy and safety for treating CVD.
Area of Science:
- Cardiovascular Medicine
- Pharmacology
- Biotechnology
Background:
- Cardiovascular disease (CVD) is a leading global cause of death.
- Novel cellular and molecular drivers beyond traditional risk factors are emerging for CVD.
- Protein-based biologics offer targeted therapeutic potential for CVD.
Purpose of the Study:
- To review pharmacokinetic and pharmacodynamic principles for cardiovascular-targeted biologics.
- To highlight the role of protein design in controlling biologics' distribution, efficacy, and safety.
- To discuss emerging biologics and opportunities for CVD treatment.
Main Methods:
- Review of foundational pharmacokinetic and pharmacodynamic principles.
- Examination of protein design strategies for cardiovascular applications.
- Discussion of emerging preclinical and clinical biologics for CVD.
Main Results:
- Understanding protein properties and cardiovascular physiology is crucial for biologics' success.
- Protein engineering can be tailored to optimize biologics' pharmacokinetic and pharmacodynamic effects.
- Pharmacokinetic-guided design is essential for developing effective and safe biologics for CVD.
Conclusions:
- Protein biologics represent a promising therapeutic avenue for cardiovascular diseases.
- Rational design informed by pharmacokinetic principles will accelerate the development of next-generation CVD protein therapies.
- Tailoring biologics' properties to disease-specific requirements is vital for clinical translation.
Abstract:
Cardiovascular disease (CVD) remains the leading cause of death worldwide despite decades of therapeutic advances. Emerging insights into its etiology have revealed previously unappreciated cellular and molecular drivers beyond traditional risk factors, prompting the development of treatments that target newly identified culprit proteins and cells within cardiovascular tissues. Protein-based biologics-particularly monoclonal antibodies and multispecific proteins-are known for their strength and specificity in targeting and their established use as treatments for other diseases. However, extending biologics to new indications faces challenges: achieving durable effects in diseased tissues and minimizing side effects in healthy tissue. Addressing these long-standing challenges requires fine-tuning biologics' pharmacokinetic properties and pharmacodynamic effects according to target- and disease-specific requirements. In this review, we examine foundational pharmacokinetic and pharmacodynamic principles in the context of cardiovascular-targeted biologics, highlighting the role of protein design in controlling distribution, efficacy, and safety. Additionally, we discuss emerging preclinical and clinical biologics specifically designed for CVDs, as well as emerging opportunities in this landscape. These advances point toward a future where pharmacokinetics guide the rational design of next-generation protein therapeutics for CVD. SIGNIFICANCE STATEMENT: Protein-based biologics hold promise for treating cardiovascular diseases (CVD); however, their successful translation requires understanding how proteins' properties and cardiovascular physiology shape pharmacokinetic and pharmacodynamic behavior. This minireview connects foundational pharmacology principles with strategies in protein engineering suitable for CVD applications. Pharmacokinetic-guided design will accelerate the development of protein therapies that can transform CVD treatment.
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