We use cookies to understand how you use our site and to improve your experience. This includes personalizing content and advertising. To learn more, click here. By continuing to use our site, you accept our use of cookies. Cookie Policy.

Features Partner Sites Information LinkXpress hp
Sign In
Advertise with Us
RANDOX LABORATORIES

Download Mobile App




Failing Hearts Switch Fuels to Continue Generating Energy

By LabMedica International staff writers
Posted on 24 Feb 2016
A new study provides fresh biochemical insight into heart failure and may eventually lead to new diagnostic and pathology tests as well as therapeutic targets to prevent or slow progression of the disease. More...
The findings suggest a new approach to help treat early stages.

The research was led by Daniel Kelly, MD, scientific director of the Lake Nona campus of Sanford Burnham Prebys Medical Discovery Institute (SPB; La Jolla, CA & Lake Nona, FA, USA) as a collaborative study by scientists from SPB, Duke University, University of Illinois, and University of Cologne.

“Our research shows that as the heart fails, it loses its ability to burn fatty acids—the building blocks of fat—and instead starts using ketone bodies as an alternative fuel. It’s almost like the heart is starving because it doesn’t have the enzymatic machinery to burn fat anymore,” said Dr. Kelly.

To better understand what metabolic changes occur in place of fatty acid-burning, the team studied well established mouse models of the early and late stages of heart failure. They analyzed heart muscle cells to identify enzymes involved in metabolizing fuel that may ultimately become targets for therapies. They found that levels of BDH1, an enzyme involved in ketone metabolism, were 2x as high in mice with both early stage and complete heart failure compared to normal animals.

“It was surprising that BDH1 was increased in the failing heart, because this is an enzyme that is involved in burning ketones,” said Dr. Kelly, “We find it more in brain and liver, but one wouldn’t expect it to be very active in the heart.”

The new results suggest that a heart in the midst of failure has the ability to reprogram itself to take in more ketones and use them in a lower oxygen consumption fuel metabolism than fatty acid metabolism. Future studies on whether this is a productive or a faulty adaptive fuel shift could lead to new therapeutic avenues. Improved treatments would also be good news as the prevalence of heart failure is expected to increase in the coming years.

The study was published January 27, 2016, in the journal Circulation.

Related Links:

Sanford Burnham Prebys Medical Discovery Institute



Gold Member
Quantitative POC Immunoassay Analyzer
EASY READER+
Online QC Software
Acusera 24•7
Manual Pipetting Aid
Pipette Controllers macro
Repetitive Pipette
VWR® Stepper Pro
Read the full article by registering today, it's FREE! It's Free!
Register now for FREE to LabMedica.com and get access to news and events that shape the world of Clinical Laboratory Medicine.
  • Free digital version edition of LabMedica International sent by email on regular basis
  • Free print version of LabMedica International magazine (available only outside USA and Canada).
  • Free and unlimited access to back issues of LabMedica International in digital format
  • Free LabMedica International Newsletter sent every week containing the latest news
  • Free breaking news sent via email
  • Free access to Events Calendar
  • Free access to LinkXpress new product services
  • REGISTRATION IS FREE AND EASY!
Click here to Register








Channels

Clinical Chemistry

view channel
Image: A new study identifies distinct metabolomic signatures in maternal blood associated with both the timing and type of early birth (Image credit: iStock)

Maternal Blood Biomarkers Identify Risk of Preterm and Early-Term Birth

Preterm and early-term births can lead to lasting complications because vital organs continue to mature during the final weeks of pregnancy. Babies born too soon face increased risks of breathing difficulties,... Read more

Microbiology

view channel
Image: Graphical Abstract (Emery, J. K., V. Nemidkanam, N. Colon, et al. Journal of Extracellular Vesicles (2026). https://doi.org/10.1002/jev2.70286)

Extracellular Vesicle Biomarker May Enable Noninvasive Monitoring of H. pylori

Helicobacter pylori infects an estimated 43.9% of the global population, affecting approximately 4.4 billion people worldwide. In many regions, including Africa, Eastern Europe, and Southeast Asia, prevalence... Read more

Industry

view channel
Image

QIAGEN Enhances QIAcuity Platform with Gene Expression and Multiplexing Tools

QIAGEN (Venlo, Netherlands) has introduced additions to its QIAcuity dPCR ecosystem that focus on gene expression, expanded assay content, and workflow standardization for life sciences and biopharma users.... Read more
Copyright © 2000-2026 Globetech Media. All rights reserved.