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Data support redo if needed.
Even after 3 years of follow-up, redo transcatheter aortic valve replacement (TAVR) performs about as well as the first procedure, whether compared for hard endpoints, such as death and stroke, or for softer endpoints, such as function and quality of life, new registry data suggest.
reported Rajendra Makkar, MD, associate director, Smidt Heart Institute, Cedars-Sinai Medical Center, Los Angeles.
The results were presented at the annual meeting of the European Association of Percutaneous Cardiovascular Interventions.
Data for this analysis were drawn from 348,338 TAVR procedures with the Edwards balloon-expandable valves in the Society of Thoracic Surgeons/American College of Cardiology Transcatheter Valve Replacement Registry.
Of these, 1,216 were redo procedures. In 475 of the cases, the redo was performed in a patient whose first procedure was with an Edwards device. In the remaining 741 cases, the Edwards device replaced a different prosthetic heart valve. The median time to the redo from the first procedure was 26 months.
For the analysis, the redo-TAVRs were compared with native TAVR patients through 1:1 propensity matching employing 35 covariates, such as age, body mass index (BMI), baseline comorbidities, prior cardiovascular procedures, valve size, and Society of Thoracic Surgeons risk score.
Low death and stroke rates following TAVR redos
The rates of all-cause death or stroke within hospital (4.7% vs. 3.9%; P = .32) and at 30 days (6.1% vs. 5.9%; P = .77) were numerically but not statistically higher in the redo group.
At 1 year, the rates of death (17.3% vs. 17.7%; P = .961) and stroke (3.3% vs. 3.5%; P = .982) were numerically but not significantly lower among those who underwent a redo procedure.
The secondary endpoints told the same story. The one exception was the higher aortic valve reintervention rate (0.61% vs. 0.09%; P = .03) at 30 days in the redo group. This did reach statistical significance, but Dr. Makkar pointed out rates were very low regardless. The rates climbed in both groups by 1 year (1.09% vs. 0.21%; P = .01).
No other secondary endpoints differed significantly at 30 days or at 1 year. Even though some were numerically higher after redo at 1 year, such as major vascular complications (1.25 vs. 1.60; P = .51), others were lower, such as new-start dialysis (1.62 vs. 0.98; P = .26). All-cause readmission rates at 1 year were nearly identical (32.56% vs. 32.23%; P = .82).
Consistent with the comparable outcomes on the hard endpoints, major and similar improvements were seen in both the redo and the propensity-matched native TAVR patients on the Kansas City Cardiomyopathy Questionnaire Overall Summary. The slight advantage for the redo group was not significant at 30 days, but the degree of improvement was greater after the redo than after native TAVR at 1 year (15% vs. 10%; P = .03).
“You bring good news,” said Alain G. Cribier, MD, director of cardiology, Charles Nicolle Hospital, University of Rouen, France. Widely regarded as the father of TAVR for his first-in-human series in 2002, Dr. Cribier said that there are several reassuring take-home messages from this study.
“First, these data tell us that the redo rate is extremely low,” he said, noting that the registry data suggests a risk well below 1%. “Second, we are seeing from this data that there are no more complications [than TAVR in a native valve] if you need to do this.”
Redo patients are generally sicker
The propensity matching was designed to eliminate baseline differences for the outcome comparisons, but Dr. Makkar did point out that redo-TAVR patients were sicker than the native TAVR patients. For example, when compared prior to propensity matching, the STS score was higher (8.3 vs. 5.2; P < .01), more patients had atrial fibrillation (47.9% vs. 36.2%; P < .01), and more patients had a prior stroke (15.0% vs. 10.7%; P < .01).
The registry only has follow-up out to 1 year, but participating patients were matched to a claims database to capture outcomes out to 3 years. Mortality rates at long-term follow-up were not significantly different for redo vs. native TAVR (42.2% vs. 40.3% respectively; P = .98); for the entire dataset or when compared in subgroups defined by Edwards valve redo of an Edwards valve (P = .909) or an Edwards valve redo of a non-Edwards device (P = .871).
Whether an early redo, defined as 12 months after the index TAVR procedure, or a late redo, the rate of mortality ranged from approximately 16% to 18% with no significant difference between redo and native TAVR.
A moderator for the late-breaking trials session where these data were presented, Darren Mylotte, MD, a consultant in cardiology for the Galway University Hospitals, Ireland, challenged Dr. Makkar about the potential for selection bias. He said redo patients might be the ones that interventionalists feel confident about helping, making this comparison unrepresentative.
“I think that the selection bias is likely to cut both ways,” Dr. Makkar replied. For many patients with a failed TAVR, he explained that clinicians might think, “There is nothing to be done for this patient except to try a redo.”
Dr. Makkar reports financial relationships with Abbott, Cordis, Edwards Lifesciences, and Medtronic. Dr. Cribier reports a financial relationship with Edwards Lifesciences. Dr. Mylotte reports no potential conflicts of interest.
Data support redo if needed.
Data support redo if needed.
Even after 3 years of follow-up, redo transcatheter aortic valve replacement (TAVR) performs about as well as the first procedure, whether compared for hard endpoints, such as death and stroke, or for softer endpoints, such as function and quality of life, new registry data suggest.
reported Rajendra Makkar, MD, associate director, Smidt Heart Institute, Cedars-Sinai Medical Center, Los Angeles.
The results were presented at the annual meeting of the European Association of Percutaneous Cardiovascular Interventions.
Data for this analysis were drawn from 348,338 TAVR procedures with the Edwards balloon-expandable valves in the Society of Thoracic Surgeons/American College of Cardiology Transcatheter Valve Replacement Registry.
Of these, 1,216 were redo procedures. In 475 of the cases, the redo was performed in a patient whose first procedure was with an Edwards device. In the remaining 741 cases, the Edwards device replaced a different prosthetic heart valve. The median time to the redo from the first procedure was 26 months.
For the analysis, the redo-TAVRs were compared with native TAVR patients through 1:1 propensity matching employing 35 covariates, such as age, body mass index (BMI), baseline comorbidities, prior cardiovascular procedures, valve size, and Society of Thoracic Surgeons risk score.
Low death and stroke rates following TAVR redos
The rates of all-cause death or stroke within hospital (4.7% vs. 3.9%; P = .32) and at 30 days (6.1% vs. 5.9%; P = .77) were numerically but not statistically higher in the redo group.
At 1 year, the rates of death (17.3% vs. 17.7%; P = .961) and stroke (3.3% vs. 3.5%; P = .982) were numerically but not significantly lower among those who underwent a redo procedure.
The secondary endpoints told the same story. The one exception was the higher aortic valve reintervention rate (0.61% vs. 0.09%; P = .03) at 30 days in the redo group. This did reach statistical significance, but Dr. Makkar pointed out rates were very low regardless. The rates climbed in both groups by 1 year (1.09% vs. 0.21%; P = .01).
No other secondary endpoints differed significantly at 30 days or at 1 year. Even though some were numerically higher after redo at 1 year, such as major vascular complications (1.25 vs. 1.60; P = .51), others were lower, such as new-start dialysis (1.62 vs. 0.98; P = .26). All-cause readmission rates at 1 year were nearly identical (32.56% vs. 32.23%; P = .82).
Consistent with the comparable outcomes on the hard endpoints, major and similar improvements were seen in both the redo and the propensity-matched native TAVR patients on the Kansas City Cardiomyopathy Questionnaire Overall Summary. The slight advantage for the redo group was not significant at 30 days, but the degree of improvement was greater after the redo than after native TAVR at 1 year (15% vs. 10%; P = .03).
“You bring good news,” said Alain G. Cribier, MD, director of cardiology, Charles Nicolle Hospital, University of Rouen, France. Widely regarded as the father of TAVR for his first-in-human series in 2002, Dr. Cribier said that there are several reassuring take-home messages from this study.
“First, these data tell us that the redo rate is extremely low,” he said, noting that the registry data suggests a risk well below 1%. “Second, we are seeing from this data that there are no more complications [than TAVR in a native valve] if you need to do this.”
Redo patients are generally sicker
The propensity matching was designed to eliminate baseline differences for the outcome comparisons, but Dr. Makkar did point out that redo-TAVR patients were sicker than the native TAVR patients. For example, when compared prior to propensity matching, the STS score was higher (8.3 vs. 5.2; P < .01), more patients had atrial fibrillation (47.9% vs. 36.2%; P < .01), and more patients had a prior stroke (15.0% vs. 10.7%; P < .01).
The registry only has follow-up out to 1 year, but participating patients were matched to a claims database to capture outcomes out to 3 years. Mortality rates at long-term follow-up were not significantly different for redo vs. native TAVR (42.2% vs. 40.3% respectively; P = .98); for the entire dataset or when compared in subgroups defined by Edwards valve redo of an Edwards valve (P = .909) or an Edwards valve redo of a non-Edwards device (P = .871).
Whether an early redo, defined as 12 months after the index TAVR procedure, or a late redo, the rate of mortality ranged from approximately 16% to 18% with no significant difference between redo and native TAVR.
A moderator for the late-breaking trials session where these data were presented, Darren Mylotte, MD, a consultant in cardiology for the Galway University Hospitals, Ireland, challenged Dr. Makkar about the potential for selection bias. He said redo patients might be the ones that interventionalists feel confident about helping, making this comparison unrepresentative.
“I think that the selection bias is likely to cut both ways,” Dr. Makkar replied. For many patients with a failed TAVR, he explained that clinicians might think, “There is nothing to be done for this patient except to try a redo.”
Dr. Makkar reports financial relationships with Abbott, Cordis, Edwards Lifesciences, and Medtronic. Dr. Cribier reports a financial relationship with Edwards Lifesciences. Dr. Mylotte reports no potential conflicts of interest.
Even after 3 years of follow-up, redo transcatheter aortic valve replacement (TAVR) performs about as well as the first procedure, whether compared for hard endpoints, such as death and stroke, or for softer endpoints, such as function and quality of life, new registry data suggest.
reported Rajendra Makkar, MD, associate director, Smidt Heart Institute, Cedars-Sinai Medical Center, Los Angeles.
The results were presented at the annual meeting of the European Association of Percutaneous Cardiovascular Interventions.
Data for this analysis were drawn from 348,338 TAVR procedures with the Edwards balloon-expandable valves in the Society of Thoracic Surgeons/American College of Cardiology Transcatheter Valve Replacement Registry.
Of these, 1,216 were redo procedures. In 475 of the cases, the redo was performed in a patient whose first procedure was with an Edwards device. In the remaining 741 cases, the Edwards device replaced a different prosthetic heart valve. The median time to the redo from the first procedure was 26 months.
For the analysis, the redo-TAVRs were compared with native TAVR patients through 1:1 propensity matching employing 35 covariates, such as age, body mass index (BMI), baseline comorbidities, prior cardiovascular procedures, valve size, and Society of Thoracic Surgeons risk score.
Low death and stroke rates following TAVR redos
The rates of all-cause death or stroke within hospital (4.7% vs. 3.9%; P = .32) and at 30 days (6.1% vs. 5.9%; P = .77) were numerically but not statistically higher in the redo group.
At 1 year, the rates of death (17.3% vs. 17.7%; P = .961) and stroke (3.3% vs. 3.5%; P = .982) were numerically but not significantly lower among those who underwent a redo procedure.
The secondary endpoints told the same story. The one exception was the higher aortic valve reintervention rate (0.61% vs. 0.09%; P = .03) at 30 days in the redo group. This did reach statistical significance, but Dr. Makkar pointed out rates were very low regardless. The rates climbed in both groups by 1 year (1.09% vs. 0.21%; P = .01).
No other secondary endpoints differed significantly at 30 days or at 1 year. Even though some were numerically higher after redo at 1 year, such as major vascular complications (1.25 vs. 1.60; P = .51), others were lower, such as new-start dialysis (1.62 vs. 0.98; P = .26). All-cause readmission rates at 1 year were nearly identical (32.56% vs. 32.23%; P = .82).
Consistent with the comparable outcomes on the hard endpoints, major and similar improvements were seen in both the redo and the propensity-matched native TAVR patients on the Kansas City Cardiomyopathy Questionnaire Overall Summary. The slight advantage for the redo group was not significant at 30 days, but the degree of improvement was greater after the redo than after native TAVR at 1 year (15% vs. 10%; P = .03).
“You bring good news,” said Alain G. Cribier, MD, director of cardiology, Charles Nicolle Hospital, University of Rouen, France. Widely regarded as the father of TAVR for his first-in-human series in 2002, Dr. Cribier said that there are several reassuring take-home messages from this study.
“First, these data tell us that the redo rate is extremely low,” he said, noting that the registry data suggests a risk well below 1%. “Second, we are seeing from this data that there are no more complications [than TAVR in a native valve] if you need to do this.”
Redo patients are generally sicker
The propensity matching was designed to eliminate baseline differences for the outcome comparisons, but Dr. Makkar did point out that redo-TAVR patients were sicker than the native TAVR patients. For example, when compared prior to propensity matching, the STS score was higher (8.3 vs. 5.2; P < .01), more patients had atrial fibrillation (47.9% vs. 36.2%; P < .01), and more patients had a prior stroke (15.0% vs. 10.7%; P < .01).
The registry only has follow-up out to 1 year, but participating patients were matched to a claims database to capture outcomes out to 3 years. Mortality rates at long-term follow-up were not significantly different for redo vs. native TAVR (42.2% vs. 40.3% respectively; P = .98); for the entire dataset or when compared in subgroups defined by Edwards valve redo of an Edwards valve (P = .909) or an Edwards valve redo of a non-Edwards device (P = .871).
Whether an early redo, defined as 12 months after the index TAVR procedure, or a late redo, the rate of mortality ranged from approximately 16% to 18% with no significant difference between redo and native TAVR.
A moderator for the late-breaking trials session where these data were presented, Darren Mylotte, MD, a consultant in cardiology for the Galway University Hospitals, Ireland, challenged Dr. Makkar about the potential for selection bias. He said redo patients might be the ones that interventionalists feel confident about helping, making this comparison unrepresentative.
“I think that the selection bias is likely to cut both ways,” Dr. Makkar replied. For many patients with a failed TAVR, he explained that clinicians might think, “There is nothing to be done for this patient except to try a redo.”
Dr. Makkar reports financial relationships with Abbott, Cordis, Edwards Lifesciences, and Medtronic. Dr. Cribier reports a financial relationship with Edwards Lifesciences. Dr. Mylotte reports no potential conflicts of interest.
FROM EUROPCR 2023