Heart failure prediction in dysglycaemia: are we ready to trust the proteome? - Scorecard - MDSpire

Heart failure prediction in dysglycaemia: are we ready to trust the proteome?

  • By

  • Fariba Ahmadizar

  • Kaavya Paruchuri

  • September 2, 2025

  • 0 min

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Clinical Scorecard: Assessing Proteomic Approaches for Heart Failure Prediction in Dysglycaemic Patients: Are We Prepared to Rely on This Technology?

At a Glance

CategoryDetail
ConditionHeart failure prediction in individuals with abnormal glucose metabolism
Key MechanismsProteomic biomarkers reflecting inflammation, oxidative stress, myocyte injury, and metabolic dysregulation
Target PopulationIndividuals across the full spectrum of glucose metabolism including normoglycaemic and diabetic patients
Care SettingCardiovascular risk assessment in outpatient or research settings

Key Highlights

  • High-throughput plasma proteomics identified four proteins (NT-proBNP, LTBP2, REN, GDF-15) independently associated with incident heart failure.
  • The protein panel–clinical factors (PPCF) model improved HF risk prediction (AUC 0.823) compared to clinical risk factors alone (AUC 0.773).
  • Limitations include low positive predictive value (16.8%), lack of HF subtype differentiation, and single baseline proteomic measurement over long follow-up.

Guideline-Based Recommendations

Diagnosis

  • Current HF risk prediction models rely on clinical factors and limited biomarkers; proteomic panels may enhance risk stratification but are not yet standard.
  • Distinguish between HFpEF and HFrEF in future proteomic studies due to differing pathophysiology.

Management

  • Proteomic risk models may guide early identification of high-risk individuals but require further validation before clinical implementation.
  • Consider cost, complexity, and incremental benefit when integrating multi-marker proteomic panels into practice.

Monitoring & Follow-up

  • Proteomic markers measured at a single time point may not capture dynamic risk; longitudinal assessment may improve predictive accuracy.

Risks

  • Potential for high false-positive rates due to low positive predictive value limits standalone screening utility.
  • Generalizability is limited by study populations predominantly of White ethnicity and healthier volunteers.

Patient & Prescribing Data

Individuals with varying glucose metabolism profiles without prior heart failure

Proteomic markers currently serve prognostic rather than causal roles; no direct therapeutic targets identified from proteomic data yet.

Clinical Best Practices

  • Incorporate proteomic data alongside clinical variables to improve HF risk stratification cautiously.
  • Recognize the heterogeneity of HF phenotypes and tailor risk prediction accordingly.
  • Validate proteomic models in diverse, real-world populations before widespread adoption.
  • Use proteomic findings to inform research on pathophysiological mechanisms rather than immediate clinical decision-making.

References

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