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University of Washington receives USD 1.2m NIH R35 award for cardiovascular-diabetes research

The [University of Washington](https://app.allsci.com/organization/ASC-OH-0000000000030-1.0-1764853177) has received a USD 1.2 million NHLBI R35 award to investigate the lipoprotein mechanisms driving cardiovascular disease risk in youth with diabetes, reflecting sustained National Institutes of Health interest in closing the translational gap between metabolic biology and early vascular preventio

The University of Washington has received a USD 1.2 million NHLBI R35 award to investigate the lipoprotein mechanisms driving cardiovascular disease risk in youth with diabetes, reflecting sustained National Institutes of Health interest in closing the translational gap between metabolic biology and early vascular prevention.

The grant, issued under funding opportunity RFA-HL-26-002 and running through February 2033, supports a program led by Karin Bornfeldt, a University of Washington researcher with an h-index of 63 and more than 14,400 citations across 448 published works. The first-year award totals USD 1,233,682 in combined direct and indirect costs.

The program centers on apolipoprotein C3 (APOC3) and its role in governing the size distribution and concentration of triglyceride-rich lipoprotein (TRL) particles and their remnants. Standard LDL-cholesterol lowering, while recommended for children over 10 years of age with elevated cardiovascular risk, leaves a residual CVD burden in people with diabetes that current clinical metrics do not fully account for. The research proposes that adipose tissue insulin resistance — present in both type 1 and type 2 diabetes — drives excess hepatic APOC3 production, which in turn promotes accumulation of a mid-sized atherogenic TRL subpopulation capable of inducing vascular inflammation.

Translational design and youth focus

The program integrates longitudinal studies in youth with type 1 or type 2 diabetes with mechanistic investigation in mouse models of diabetes-accelerated atherosclerosis and cell systems. The longitudinal arm will test whether elevated plasma APOC3 associates with worsening trajectories of insulin resistance and arterial stiffness — an early subclinical marker of atherosclerotic cardiovascular disease — in pediatric and adolescent populations. A separate mechanistic line of inquiry examines whether dysfunction in the hepatic sortilin 1–APOB100 secretion pathway explains the elevated APOC3 output and downstream atherosclerosis observed in diabetes.

The youth emphasis is clinically relevant. Type 2 diabetes incidence in youth is projected by some models to rise by 700% between 2017 and 2060, and youth-onset type 2 diabetes is characterized by more severe insulin resistance than adult-onset disease, with a substantial rate of early arterial stiffening. CVD events also occur at younger ages in people with diabetes than in the general population, making early biomarker identification and preventive intervention a clinical priority that current frameworks do not adequately address.

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Funding context and broader research trends

The R35 mechanism, administered by the National Heart, Lung, and Blood Institute, is structured to provide sustained support to established investigators rather than funding discrete project cycles. The seven-year project period — extending to February 2033 — reflects that design, giving the Bornfeldt laboratory the continuity needed to complete longitudinal phenotyping work in a pediatric cohort alongside parallel mechanistic studies. The award is categorized as new and active as of May 2026.

The APOC3 axis has attracted growing pharmaceutical attention. RNA-targeted therapies inhibiting APOC3 are in clinical development for hypertriglyceridemia, and the question of whether APOC3-driven TRL remnant accumulation constitutes a tractable therapeutic target in diabetic CVD is an active area of investigation. The University of Washington program does not itself test a therapeutic intervention, but its stated goal — identifying new metrics to predict CVD risk and novel prevention strategies in people with diabetes, including youth — positions it as upstream translational work with potential to inform both clinical risk stratification and future target validation.


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