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Chavin, Kenneth

0000-0003-0818-4847

Mayo Clinic

University Hospitals Cleveland Medical Center, Cleveland, Ohio, USA.

Citations 2

Long-term clinical outcomes of patients with COVID-19 and chronic liver disease: US multicenter COLD study
Aby, Elizabeth S. , Moafa, Ghady, Sultan, Mohammad T., Cacioppo, Paula A., Kumar, Sonal , Chung, Raymond , Bloom, Patricia P. , Gustafson, Jenna , Daidone, Michael , Reinus, Zoe, Debes, José D. , Sandhu, Sunny , Khalid, Sameeha , Roytman, Marina , Catana, Andreea M. , Wegermann, Kara , Carr, Rotonya M. , Saiman, Yedidya , Kassab, Ihab , Chen, Vincent , Rabiee, Atoosa , Rosenberg, C. E., Nguyen, Veronica , Gainey, Christina S. , Chavin, Kenneth D. , Chascsa, David M. , Varelas, Lee , Moghe, Akshata , Dhanasekaran, Renumathy , Latt, Nyan , Bloom, Patricia P , Debes, Jose D , Sandhu, Sunny , Sohal, Aalam , Khalid, Sameeha , Roytman, Marina , Catana, Andreea Maria , Wegermann, Kara , Carr, Rotonya M , Chen, V L , Rabiee, Atoosa , Nguyen, Veronica , Gainey, Christina , Zhou, Kali , Chavin, Kenneth , Lizaola-Mayo, Blanca , Chascsa, David M , Varelas, Lee , Dhanasekaran, Renumathy , Lizaola‐Mayo, Blanca

Hepatology Communications | January 24, 2023 | Volume: 7 | Issue: 1 | Pages: e8874-e8874

10.1097/01.hc9.0000897224.68874.de Get It

Background: COVID-19 is associated with higher morbidity and mortality in patients with chronic liver diseases (CLDs). However, our understanding of the long-term outcomes of COVID-19 in patients with CLD is limited. Methods: We conducted a multicenter, observational cohort study of adult patients with CLD who were diagnosed with COVID-19 before May 30, 2020, to determine long-term clinical outcomes. We used a control group of patients with CLD confirmed negative for COVID-19. Results: We followed 666 patients with CLD (median age 58 years, 52.8% male) for a median of 384 (interquartile range: 31–462) days. The long-term mortality was 8.1%; with 3.6% experiencing delayed COVID-19-related mortality. Compared to a propensity-matched control group of patients with CLD without COVID-19 (n=1332), patients with CLD with COVID-19 had worse long-term survival [p<0.001; hazards ratio (HR): 1.69; 95% CI: 1.19–2.41] and higher rate of hospitalization (p<0.001, HR: 2.00, 1.62–2.48) over a 1-year follow-up period. Overall, 29.9% of patients reported symptoms of long-COVID-19. On multivariable analysis, female sex (p=0.05, HR: 2.45, 1.01–2.11), Hispanic ethnicity (p=0.003, HR: 1.94, 1.26–2.99), and severe COVID-19 requiring mechanical ventilation (p=0.028, HR: 1.74, 1.06–2.86) predicted long-COVID-19. In survivors, liver-related laboratory parameters showed significant improvement after COVID-19 resolution. COVID-19 vaccine status was available for 72% (n=470) of patients with CLD and history of COVID-19, of whom, 70% (n=326) had received the COVID-19 vaccine. Conclusions: Our large, longitudinal, multicenter study demonstrates a high burden of long-term mortality and morbidity in patients with CLD and COVID-19. Symptoms consistent with long-COVID-19 were present in 30% of patients with CLD. These results illustrate the prolonged implications of COVID-19 both for recovering patients and for health care systems.
Discovery and Validation of a Biomarker Model (PRESERVE) Predictive of Renal Outcomes After Liver Transplantation
Levitsky, Josh , Asrani, Sumeet K. , Klintmalm, Göran B. , Schiano, Thomas D. , Moss, Adyr A. , Chavin, Kenneth D. , Miller, Charles C. , Guo, Kexin , Zhao, Lihui , Jennings, Linda W. , Brown, Merideth, Armstrong, Brian, Asrani, Sumeet K , Chavin, Kenneth , Abecassis, Michael M.

Hepatology | September 11, 2019 | Volume: 71 | Issue: 5 | Pages: 1775-1786

10.1002/hep.30939 Get It

Background and Aims A high proportion of patients develop chronic kidney disease (CKD) after liver transplantation (LT). We aimed to develop clinical/protein models to predict future glomerular filtration rate (GFR) deterioration in this population. Approach and Results In independent multicenter discovery (CTOT14) and single‐center validation (BUMC) cohorts, we analyzed kidney injury proteins in serum/plasma samples at month 3 after LT in recipients with preserved GFR who demonstrated subsequent GFR deterioration versus preservation by year 1 and year 5 in the BUMC cohort. In CTOT14, we also examined correlations between serial protein levels and GFR over the first year. A month 3 predictive model was constructed from clinical and protein level variables using the CTOT14 cohort (n = 60). Levels of β‐2 microglobulin and CD40 antigen and presence of hepatitis C virus (HCV) infection predicted early (year 1) GFR deterioration (area under the curve [AUC], 0.814). We observed excellent validation of this model (AUC, 0.801) in the BUMC cohort (n = 50) who had both early and late (year 5) GFR deterioration. At an optimal threshold, the model had the following performance characteristics in CTOT14 and BUMC, respectively: accuracy (0.75, 0.8), sensitivity (0.71, 0.67), specificity (0.78, 0.88), positive predictive value (0.74, 0.75), and negative predictive value (0.76, 0.82). In the serial CTOT14 analysis, several proteins, including β‐2 microglobulin and CD40, correlated with GFR changes over the first year. Conclusions We have validated a clinical/protein model (PRESERVE) that early after LT can predict future renal deterioration versus preservation with high accuracy. This model may help select recipients at higher risk for subsequent CKD for early, proactive renal sparing strategies.