Treating the causes of paediatric hypertension using non-invasive physiological parameters
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Published on: January 27, 2023
Joe Brierley1, Stephen D Marks
1Paediatric and Neonatal Intensive Care Unit, Great Ormond Street Hospital for Children NHS Trust, London, UK.
Insights
Pediatric hypertension management can be improved by using new non-invasive hemodynamic monitoring. Tailoring treatments to individual physiological derangements offers more effective blood pressure control in children.
Area of Science:
- Pediatric Nephrology
- Cardiovascular Physiology
- Clinical Pharmacology
Background:
- Hypertension in children, particularly those with renal disease, presents diagnostic and therapeutic challenges.
- Recent advancements in understanding blood pressure homeostasis (renin-angiotensin system, endothelial function) and hypertensive pathophysiology exist.
- Current pediatric hypertension treatment strategies often lack personalization, failing to address individual physiological derangements.
Purpose of the Study:
- To advocate for the integration of non-invasive hemodynamic monitoring in pediatric hypertension management.
- To propose a shift towards individualized, physiology-targeted antihypertensive therapies in children.
- To explore the application of hemodynamic parameters, typically used in intensive care, for outpatient pediatric hypertension management.
Main Methods:
- Review of current knowledge on pediatric hypertension and blood pressure regulation.
- Discussion of emerging non-invasive technologies for quantifying hemodynamic parameters (cardiac index, systemic vascular resistance).
- Proposal of a treatment algorithm based on individual hemodynamic profiles.
Main Results:
- Non-invasive technologies can quantify key hemodynamic parameters (e.g., cardiac index, systemic vascular resistance).
- Mean arterial pressure is determined by cardiac output and systemic vascular resistance.
- Specific antihypertensive strategies can be logically derived from these parameters (e.g., beta-blockers for elevated cardiac index, vasodilators for elevated systemic vascular resistance).
Conclusions:
- Individualized, physiology-targeted therapies for pediatric hypertension promise greater efficacy and speed.
- Non-invasive hemodynamic assessment enables tailored treatment selection, moving beyond physician preference.
- The application of advanced hemodynamic monitoring in outpatient settings can significantly improve pediatric hypertension management.
Abstract:
Although hypertension is uncommon in childhood, when present, clinicians should investigate the cause and manage appropriately, which can be challenging in children with renal disease. Our knowledge of normal homeostatic mechanisms of blood pressure control, such as the renin-angiotensin system or endothelial function, and the pathophysiology of these systems in hypertensive patients, has significantly advanced in recent years. However, our therapeutic strategy in paediatric hypertension is limited in delineating the underlying physiological derangement of individual patients. New non-invasive technologies are increasingly offering quantification of haemodynamic parameters to physicians. We suggest use of these parameters (normally limited to intensive care physicians by virtue of previously invasive methods of quantification) to less acute medical areas such as outpatients. If a child is hypertensive due to an elevated cardiac index then choosing anti-hypertensive agents such as beta-blockers seems appropriate. As mean arterial pressure is the product of cardiac output and systemic vascular resistance, if the cardiac output is not raised then utilising vasodilators to reduce the systemic vascular resistance is logical. Modern therapeutic strategies targeted at a child's individual physiological derangement should offer more rapid and effective anti-hypertensive medication than current therapy based on physician preference.
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