Antonio , Giuseppe , Mara , Gianluigi , Fausto , and Alberto: An analysis of the economic impact of drug-coated balloon use for the treatment of peripheral artery disease.


Peripheral artery disease (PAD) is characterized by narrowing (stenosis) or occlusion of peripheral arteries with consequent manifestation of ischemic blood flow. In the lower limbs, although asymptomatic in the most cases, PAD may manifest itself in different forms depending on whether it presents as claudication or as critical limb ischemia (CLI). Claudication is a functional manifestation, causing pain of varying intensity in the affected limb during walking. CLI may be evidenced by rest pain, skin ulcers, or, in its more advanced stages, necrosis and gangrene of the foot1.

Epidemiological studies of PAD show highly variable results, mainly due to the different demographic characteristics and variations in the type of PAD in the tested populations. In fact, in the absence of screening programs, lower limb artery disease is systematically under-reported or mis-diagnosed. The Inter-Society Consensus for the Management of Peripheral Arterial Disease (TASC II) reports prevalence estimates in the general population ranging between 3% and 10%. Prevalence tends to increase with age, up to approximately 20% in patients over 70 years of age. By comparison, symptomatic PAD ranges from 3% in patients with a mean age of 40 years to 6% in patients aged about 602. The prevalence data of TASC II suggest that there are around 2.7 million patients affected by asymptomatic PAD and around 1 million with symptoms of atherosclerotic vascular processes in Italy.

Clear data on PAD morbidity and mortality have been reported. Progressive worsening of prognosis over time with increased mortality and associated comorbidities is observed in patients with PAD. Patients with lower limb PAD have roughly 3-fold increase in risk of mortality and major cardiovascular events (heart attack and stroke)3-5 compared with those without PAD. The global risk of occurrence of coronary or cerebrovascular disease exceeds 60%6.

The most significant complication related to CLI is amputation. Even today, this clinical consequence affects a large segment of the population (from 120,000 to 500,000 per year)7. It is estimated that at the time of diagnosis, 15% of patients suffering from CLI undergo primary amputation (ie, with no antecedent attempt at revascularization) and that, in the following 6 months, the risk rises to 40%8 Obviously, the clinical picture worsens in diabetic patients, in whom we observe a rate of lower limb amputation 20-fold higher than in the general population9.

PAD-related revascularizations and complications such as amputations represent a substantial and growing financial burden to health care systems1. Notably, PAD patients are likely to generate higher healthcare costs than those with cerebrovascular or coronary artery disease10.

The optimal treatment for patients with lower limb peripheral disease (especially for disease of the superficial femoral artery) is a matter of continuing debate. Today, the available treatment options vary according to the severity of the disease. In some cases, lifestyle interventions such as smoking cessation, exercise, and diet are sufficient; in others, surgical treatment, which can proceed via a bypass operation or through a minimally invasive endovascular procedure11, is chosen. In particular, standard balloon angioplasty (percutaneous transluminal angioplasty (PTA)) is an attractive minimally-invasive procedure. This can be performed with different technologies. A balloon may be used to dilate the occluded vessel (plain old balloon angioplasty (POBA)). Bare-metal stents (BMSs) may be implanted. In addition to dilating the vessel, BMSs provide structural support to avoid re-occlusion. Drug-eluting stents (DESs) which, in addition to providing structural support to the vessel, exploit the anti-proliferative actions of drugs to inhibit the process of restenosis, may be substituted12,13. Drug-coated balloons (DCBs) are promising alternatives for the treatment of patients with PAD due to the potential reduction in re-intervention rates compared with other technologies commonly used14-16.

This analysis had multiple objectives: i) to evaluate total costs per patient associated with each with the 4 endovascular therapies currently in use for PAD (DCBs, POBA, BMSs, and DESs) at 1 year using a decision analytic model; ii) to apply the results of the 1-year analysis to estimate the total economic impact on the Italian National Healthcare Service (NHS) for peripheral interventions over a 5-year period.

Figure 1

Structure of the decision analytic model TLR: target-lesion revascularization; POBA: plain old balloon angioplasty; DCB: drug-coated balloons; BMS: bare metal stents; DES: drug-eluting stents; s/p: status post; M: Markov states.



A budget impact model was developed to compare the relative economic results in Italy of the 4 different index procedure treatments (POBA, DCBs, BMSs and DESs) based on the repeat-procedure rates (ie, target lesion revascularization (TLR)) over 1 year. The model was developed to ascertain the specific costs to the NHS with a 5-year time horizon.The effectiveness measure used in the model was the 1-year rate of reintervention (TLR) for each of the 4 therapies of interest. The model was based on the recently published pooled estimates of Pietzsch17. The TLR values used in the model were converted to 12-month rates that were considered more realistic from the Italian NHS perspective. Costs associated with each treatment were derived from the average diagnosis-related group (DRG) tariffs used for peripheral angioplasty procedures. A decision analytic model was developed to estimate 12-month total costs of index procedures and possible revascularizations (based on pooled TLR rate estimation) covered by the NHS. The decision tree with the 4 index procedure strategies was combined with a Markov model to simulate the patient pathway for femoral-popliteal disease. Figure 1 provides the specific structure of the decision analytic model. Transition probabilities varied with the specific index procedure.

The choice of therapy used in re-interventions was based on expert opinion. In Appendix A the patient pathway considered for each index therapy is indicated according to the transition probabilities assumed. The cycle length of the Markov model was 1 week. Based on per-patient savings, total potential savings over 5 years were estimated considering 3 different scenarios of DCB adoption. Table 1 provides an overview of these scenarios, considering the current market situation and a realistic forecast for the next few years.

Table 1

DCB adoption scenarios over 5 years

Base case scenario
Adoption rate 2014 2015 2016 2017 2018 2019
DCB 4% 6% 8% 10% 12% 14%
DES 5% 5% 5% 5% 5% 5%
BMS 37% 36% 36% 35% 34% 33%
POBA 54% 53% 51% 50% 49% 48%
Optimistic scenario
DCB 4% 9% 14% 19% 24% 29%
DES 5% 5% 5% 5% 5% 5%
BMS 37% 32% 28% 24% 20% 16%
POBA 54% 54% 53% 52% 51% 50%
Pessimistic scenario
DCB 4% 5% 6% 7% 8% 9%
DES 5% 4% 4% 4% 3% 3%
BMS 37% 37% 35% 33% 32% 30%
POBA 54% 54% 55% 56% 57% 58%

BMS: bare-metal stent; DCB: drug-coated balloon; DES: drug-eluting stent; POBA: plain old balloon angioplasty

The model was built according to the following assumptions: i) bypass surgery was not considered as an index option, as the lesions evaluated in the analysis were not complex (consisting of Rutherford categories 2 and 3); ii) due to the lack of solid evidence comparing atherectomy with the endovascular approach, atherectomy was only considered in combination with use of another device for re-intervention purposes; iii) in the 12-month follow-up period, only 1 re-intervention after the index procedure was evaluated; iv) 80% of cases include pre-dilation via angioplasty balloon; v) only 1 device was used in each intervention, as the average lesion length was only 75 mm; vi) deaths or amputations were not accounted for.

Table 2

Input parameters

Variable Definition Reference
Stent Use Probabilities in Procedures
Probability of one stent 0.95 Expert opinion
Probability of POBA predilatation in stenting 0.80
POBA during DCB Expert opinion
After POBA, DES, or DCB 0.80
After BMS 0.00
Italian Cost Parameters
DRG 479 € 4742.00 Ministero della Salute. Decreto 18 Ottobre 2012
DRG 554 € 7144.00
DRG 553 € 9039.00
DRG Rate
DRG 479 (Angioplasty) 64% —-
DRG 554 (Angioplasty + Complication) 32%
DRG 553 (Angioplasty + Major CV Diagnosis) 4%
DRG 479 (Bypass) 50%
DRG 554 (Bypass + Complication) 44%
DRG 553 (Bypass + Major CV Diagnosis) 6%
Full cost (NHS perspective)
POBA (DRG 479/554/553) € 5682.52 —-
BMS (DRG 479/554/553) € 5682.52
DES (DRG 479/554/553) € 5682.52
DCB (DRG 479/554/553) € 5682.52
ViaBahn € 6056.70

BMS: bare-metal stent; CV: cardiovascular; DCB: drug-coated balloon; DES: drug-eluting stent; DRG: diagnosis-related group; NHS: Italian National Health Service; POBA: plain old balloon angioplasty.

Cost associated with each treatment (for both index procedures and possible re-interventions) were derived from the average DRG tariffs currently in use in Italy for peripheral endovascular procedures18. In particular, the tariffs for inpatient reimbursement associated with following procedures were weighted for the frequency of each DRG observed at national level: DRG 479 “Other interventions on Cardiovascular System without complications”, DRG 553 “Other interventions on Cardiovascular System with complications and without Major Cardiovascular Diagnosis”, and DRG 554 “Other interventions on Cardiovascular System with complications and without Major Cardiovascular Diagnosis”. Any additional add-on payment was included in the analysis. It is important to emphasise that, at this time in Italy, all peripheral endovascular procedures receive the same reimbursement, independent of technology used (POBA, DCBs, BMSs, or DESs). Table 2 shows all the input parameters used to populate the model.


Based on a systematic literature review of clinical measures17, 12 publications including registries and clinical trials were used to estimate the TLR rates associated with each endovascular procedure studied [19-29]. More detailed information about TLR probabilities indicated in each study is shown in Table 3. Appendix B synthesizes the features of all studies included in the systematic review and used for TLR estimation.

Table 3

TLR probabilities reported in the identified studies

Trial TLR probability
THUNDER 52% 15%
FEM-PAC 50% 13%
FAST 18% 15%
SIROCCO I 13% 6%
Shammas et al. 17%
Micari et al. 14%
DURABILITY I 52% 15% 21%

ABI: ankle-brachial index; BMS: bare-metal stent; DCB: drug-coated balloon; DES: drug-eluting stent; POBA: plain old balloon angioplasty; TLR: target-lesion revascularization.

Using a pooling weighted approach (assuming a constant hazard rate) the 12-month TLR probabilities for each index therapy were obtained. The pooled 12-month TLR rates show clear patient benefit with DCBs (6.9%) compared to POBA (21.7%) or BMSs (14.3%) and non-inferiority versus DESs (7.3%). The TLR results obtained from the pooling analysis are shown in Figure 2.

Total payments for index procedures and possible repeat interventions (based on TLR rates estimation) across all treatments suggested that DCBs were the least costly treatment strategy over a 1-year period. The average cost per patient treated with DCBs as index strategy was €6073, compared with €6095 for DESs, €6492 for BMSs, and €6914 for POBA. POBA is currently considered the standard of care for femoral-popliteal disease in Italy. Considering the NHS perspective and the total DRG payment used, DCBs showed a saving of almost €1000 per patient over 1 year. The 12-month cost-per-patient scenario is graphically presented in Figure 3.

The number-needed-to-treat (NNT) to avoid a TLR over 12 months obtained by comparison of the most effective (DCBs) to the least effective therapy (POBA) is 7. Considering the clinical non-inferiority of DCBs compared with stenting procedures (either DES or BMS) the NNT evaluation is not significant. However, it is important to emphasise that DCB offer clear benefit without any permanent implantation. Avoiding such implantations provides further clinical and procedural advantages for patient and operator, considering the hypothesis of re-intervention over the long term. Based on the above per-patient savings, the total potential savings amounted to approximately €8.7 million for an assumed annual increase of 5% in DCB adoption rate over 5 years (defined as the “optimistic” scenario). In the “pessimistic” scenario, cost-savings due to use of DCB are not fully offset due to the increased adoption of POBA over the time-frame considered in the analysis. The 5-years potential savings is graphically presented in Figure 4.


This study investigated the economic impact in Italy of DCBs compared with other technologies currently in use for peripheral angioplasty procedures (POBA, BMSs, DESs). The results obtained from this budget impact analysis show that in patients with femoral-popliteal arterial obstructions, DCBs are the least costly treatment strategy from the NHS perspective. The analysis shows that DCBs offer improved clinical and economic outcomes compared with POBA and BMSs. By contrast, DCBs seem to offer clinical advantages and, as a consequence, economic impact similar to DES.

This analysis is based on the clinical outcome data currently available in the literature for all 4 endovascular technologies (POBA, DCBs, BMSs, and DESs) used in “de novo” lesions in the superficial femoral artery and/or popliteal artery disease and on the DRG tariffs used in Italy for endovascular procedures. Unfortunately, these results cannot be compared with similar economic evaluations performed in Italy because the economic impact of DCBs has never previously been estimated. At present, there are few studies in the literature related to peripheral endovascular interventions, ie., a cost-effectiveness analysis of DCB use in femoral-popliteal arterial obstructions performed from the facility/physician provider perspective [30]. The analysis in the present study bases the economic value of DCBs on TLR rates reported in the literature and, as a consequence, on the assumption that lower rates of re-intervention are associated with lower inpatient costs when compared with POBA, despite the greater initial investment for the technology. The analysis of Diehm et al. [30] comparing DCBs with the stenting approach concluded that the introduction of dedicated financial incentives aimed at improving DCB reimbursement may help lower total healthcare costs. The study published by Kearns et al31 investigated the economic impact of DCB use in populations of patients with intermittent claudication or critical limb ischemia CLI. For patients with more complex characteristics, the conclusions of the analysis favour DCBs, which, in both patient populations, represent a more cost-effective treatment option compared with the considered alternatives (PTA or bail-out BMSs). Our results are consistent with the economic evaluation of endovascular interventions recently performed by Pietzsch et al. for the US and Germany17. These authors established that drug-eluting strategies (DCBs and DESs) had lower budget impacts over 24 months when compared with the other strategy options (PTA and/or BMSs) in both the US Medicare (DCBs: $10,214; DESs: $12,904; BMSs $13,802; PTA $13,114;) and German public health care systems (DCBs €3619; DESs €3632; BMSs €4026; PTA €4290).

Figure 2

12-month TLR probabilities for POBA, DCB, BMS, and DES. TLR: target-lesion revascularization; POBA: plain old balloon angioplasty; DCB: drug-coated balloons; BMS: bare metal stents; DES: drug-eluting stents.


Figure 3

Total DRG payments per patient over 12 months POBA: plain old balloon angioplasty; DCB: drug-coated balloons; BMS: bare metal stents; DES: drug-eluting stents.


Figure 4

Total potential savings over 5 years for 3 different scenarios of DCB adoption


Our analysis has some limitations. The first is that the key assumptions on which the model is based that may preclude the generalisation of results to current clinical practice. More specifically, the present study is based on clinical evidence related only to the femoral-popliteal district, while the real focus for most specialists involved in the management of lower-limb arterial disease is the treatment of patients with CLI. Moreover, the most significant clinical evidence currently available in the literature is mainly related to less complex lesions.

There are also potential limitations in the studies included in the literature review. Comparative data across all therapies are still limited (especially randomised controlled trials), and TLR rates vary greatly between trials. As a consequence, a pooling analysis based on sample size was conducted to compare available results for each endovascular technology. Other key assumptions are related to the model hypotheses included. Bypass surgery was not considered as an index treatment option, because only lesions of moderate complexity were considered in the model. Furthermore, considering the short cycle length of the model (1 week), the hypothesis selected only 1 potential re-intervention during the 12-month follow-up. Also, the assumption that only 1 device per intervention is used is dependent on the average lesion length included (around 75 mm). Other limitations involve the annual increase of revascularization and DCB adoption rate, which are based on internal market surveys. Finally, the choice of therapy used as second intervention is based on expert panel opinion. Other transition probabilities might lead to different results in terms of economic impact.

In conclusion, we emphasize that inpatient costs for each treatment (for both index procedures and re-interventions) are derived from the average DRG tariffs currently in use in Italy for peripheral endovascular procedures, where the reimbursement status is independent of technology used. While this is correct from the NHS perspective, the stipulation highly influences the final model results. In fact, the decision analytic model suggests that DCB may be a cost-saving strategy for the national/regional payer but, using the actual hospitalization costs, may have a negative financial impact on hospital administrations. Having the same reimbursement for each technology used in peripheral procedures increases the use of DCBs (the most expensive device, but with a lower rate of re-intervention), but decreases the profit for hospitals. As a consequence, the device cost is still the most important aspect of technology choice in Italy. For this reason, we feel strongly that decision-makers should consider performing on this type of analysis and providing equal reimbursement for innovation treatments to avoid the creation of similar barriers in market access.

Another important consideration is connected to the type of costs included in the analysis. We only have considered direct costs for inpatient treatment; all other costs for the outpatient management that characterize this population were not accounted for. It is reasonable to assume that the poorer clinical outcomes observed for POBA and BMSs would lead to more outpatient costs because of the higher recurrence of symptoms. As a consequence, the total expenditure for these DCB treatment alternatives may have been underestimated by the present analysis.

This budget impact analysis addresses the current gap of information about economic aspects of DCB use in peripheral angioplasty procedures. Further studies should be carried out to compare our results with studies in other health systems to thoroughly evaluate the economic value of this innovative technology. Despite the above-mentioned limitations, this budget impact analysis suggests that DCBs may be a cost-saving strategy from the NHS perspective compared to the other technologies currently in use for PTA procedures.


The authors thank Jan Pietzsch, MD for helpful discussions and Judith Greengard, PhD, RAC for medical writing assistance. The authors state they abide by the statement of publishing ethics of the journal32.

Conflict of interest statement:

A. Micari serves as Medtronic consultant and Mara Corbo is employee of Medtronic. Remaining authors do not have conflict of interest.




bare-metal stent(s)


critical limb ischemia


drug-coated balloon(s)


Drug-eluting stent(s)


Diagnosis-related group(s)


Italian National Healthcare Service




peripheral artery disease


plain old balloon angioplasty


percutaneous transluminal angioplasty


Inter-Society Consensus for the Management of Peripheral Arterial Disease


target lesion revascularization



Fowkes FGR, Rudan D, Rudan I et al Comparison of global estimates of prevalence and risk factors for peripheral artery disease in 2000 and 2010: a systematic review and analysis. The Lancet 2013; 382: 1329–1340


Norgren L, Hiatt WR, Dormandy JA et al Inter-Society Consensus for the Management of Peripheral Arterial Disease (TASC II). J Vasc Surg 2007; 45: S5–S7


Pande RL, Perlstein TS, Beckman JA et al Secondary prevention and mortality in peripheral artery disease: National Health and Nutrition Examination Study. 1999; to2004; Circulation2011; 124: 17–23


Smith GD, Shipley MJ, Rose G Intermittent claudication, heart disease risk factors, and mortality. The Whitehall Study Circulation1990; 82: 1925–1931


Ankle Brachial Index Collaboration, Fowkes FG, Murray GD. et al Ankle brachial index combined with Framingham Risk Score to predict cardiovascular events and mortality: a meta-analysisJ Amer Med Assoc 2008; 300: 197–208


Bennett PC, Silverman S, Gill PS et al Ethnicity and peripheral artery disease. Quart J Med 2009; 102: 3–16


Criqui MH, Langer RD, Fronek A et al Mortality over a period of 10 years in patients with peripheral arterial disease. N Engl J Med 1992; 326: 381–386


PDTA della Arteriopatia Obliterante Cronica Periferica. Aress Agenzia Regionale per i Servizi Sanitari - Regione Piemonte.


Mays R, Mays RJ, Casserly IP et al Assessment of functional status and quality of life in claudication. J Vasc Surg 2011; 53: 1410–1421


Smolderen KG, Wang K, de Pouvourville G et al Two-year vascular hospitalisation rates and associated costs in patients at risk of atherothrombosis in France and Germany: highest burden for peripheral arterial disease. Eur J Vasc Endovasc Surg 2012; 43: 198–207


Cissarek T et al Vascular medicine. New York: McGraw-Hill Medical2010;


Tepe G, Schmitmeier S, Speck U et al Advances on drug-coated balloons. J Cardiovasc Surg (Torino)2010; 51: 125–1S43


Stone GW, Moses JW, Ellis SG et al Safety and efficacy of sirolimus and paclitaxel-eluting coronary stents. N Engl J Med 2007; 356: 998–1008


Tepe G, Zeller T, Albrecht T et al Local delivery of paclitaxel to inhibit restenosis during angioplasty of the leg. N Engl J Med 2008; 358: 689–699


Werk M, Langner S, Reinkensmeier B et al Inhibition of restenosis in femoropopliteal arteries: paclitaxel-coated versus uncoated balloon: femoral paclitaxel randomize pilot trial. Circulation2008; 118: 1358–1365


Werk M, Albrecht T, Meyer DR et al Paclitaxel-coated balloons reduce restenosis after femoro-popliteal angioplasty: evidence from the randomized PACIFIER trial. Circ Cardiovasc Interv 2012; 5: 831–840


Pietzsch JB, Geisler BP, Garner AM et al Economic Analysis of Endovascular Interventions for Femoropopliteal Arterial Disease: A Systematic Review and Budget Impact Model for the United States and Germany. Catheter Cardiovasc Interv 2014; 84: 546–554


Ministero della Salute. Decreto 18 Ottobre 2012. Remunerazione delle prestazioni di assistenza ospedaliera per acuti, assistenza ospedaliera di riabilitazione e di lungodegenza post acuzie e di assistenza specialistica ambulatoriale. Supplemento ordinario alla “Gazzetta Ufficiale n. 23 del 28 gennaio 2013 - Serie generale


Tepe G, Zeller T,, Albrecht T et al Local Delivery of Paclitaxel to Inhibit Restenosis during Angioplasty of the Leg. N Engl J Med 2008; 358: 689–699


Werk M, Albrecht T, Meyer DR et al Paclitaxel-Coated Balloons Reduce Restenosis After Femoro-Popliteal Angioplasty: Evidence From the Randomized PACIFIER Trial. Circ Cardiovasc Interv 2012; 5: 831–834


Laird JR, Katzen BT, Scheinert D et al Nitinol stent implantation vs. balloon angioplasty for lesions in the superficial femoral and proximal popliteal arteries of patients with claudication: three-year follow-up from the RESILIENT randomized trial. J Endovasc Ther 2012; 19: 1–9


Krankenberg H, Schluter M, Steinkamp H et al Nitinol Stent Implantation Versus Percutaneous Transluminal Angioplasty in Superficial Femoral Artery Lesions up to 10 cm in Length: The Femoral Artery Stenting Trial (FAST). Circulation2007; 116: 285–292


Dake MD, Scheinert D, Tepe G et al Nitinol stents with polymer-free paclitaxel coating for lesions in the superficial femoral and popliteal arteries above the knee: twelve-month safety and effectiveness results from the Zilver PTX single-arm clinical study. J Endovasc Ther 2011; 18: 613–623


Dake M, Ansel GM, Jaff MR et al Paclitaxel-eluting stents show superiority to balloon angioplasty and bare metal stents in femoropopliteal disease: twelve-month Zilver PTX randomized study results. Circ Cardiovasc Interv 2011; 4: 495–504


Duda SH, Bosiers M, lamer J et al Drug-Eluting and Bare Nitinol Stents for the Treatment of Atherosclerotic Lesions in the Superficial Femoral Artery: Long-term Results from the SIROCCO trial. J Endovasc Ther 2006; 13: 701–710


Shammas NW, Coiner D, Shammas GA et al Percutaneous Lower-extremity Arterial Interventions with Primary balloon Angioplasty Versus SilverHawk Atherectomy and Adjunctive Balloon Angioplasty: Randomized Trial. J Vasc Interv Radiol 2011; 22: 1223–1228


Lammer J, Bosiers M, Zeller T et al First clinical trial of nitinol self-expanding everolimus-eluting stent implantation for peripheral arterial occlusive disease. J Vasc Surg 2011; 54: 394–401


Micari A, Cioppa A, Vadalà G et al 2-Year Results of Paclitaxel-Eluting Balloons for Femoropopliteal Artery Disease. J Am Coll Cardiol Interv 2013; 6: 282–289


Bosiers M, Torsello G, Giβler HM et al Nitinol Stent Implantation in Long Superficial Femoral Artery Lesions: 12-Month Results of the DURABILITY I Study. J Endovasc Ther 2009; 16: 261–269


Diehm N, Schneider H Cost-effectiveness analysis of paclitaxel-coated balloons for endovascular therapy of femoropopliteal arterial obstructions. J Endovasc Ther 2013; 20: 819–825


Kearns BC, Michaels A, Stevenson MD et al Cost-effectiveness analysis of enhancements to angioplasty for infrainguinal arterial disease. Br J Surg 2013; 100: 1180–1188


Shewan LG, Coats AJS, Henein M Requirements for ethical publishing in biomedical journals. International Cardiovascular Forum Journal 2015; 22 10.17987/icfj.v2i1.4



Werk M, Langner S, Reinkensmeier B et al Inhibition of Restenosis in Femoropopliteal Arteries: Paclitaxel-Coated Versus Uncoated Balloon: Femoral Paclitaxel randomized Pilot Trial. Circulation2008; 118: 1358–1365


Micari A, MD, Cioppa A, Vadalà G et al Clinical Evaluation of a Paclitaxel-Eluting Balloon for Treatment of Femoropopliteal Arterial Disease 12-Month Results From a Multicenter Italian Registry. J Am Coll Cardiol Intv 2012; 5: 331–8


Duda SH, Bosiers M, Lammer J et al Sirolimus-Eluting versus Bare Nitinol Stent for Obstructive Superficial Femoral Artery Disease: The SIROCCO II Trial. J Vasc Interv Radiol 2005; 16: 331–338


Shammas NW, Coiner D, Shammas G et al Percutaneous lower extremity arterial interventions using primary balloon angioplasty versus cryoplasty: a randomized pilot trial. Cardiovascular Revascularization Medicine 2012; 13: 172–176


Schillinger M, Sabeti S, Dick P et al Sustained Benefit at 2 Years of Primary Femoropopliteal Stenting Compared With Balloon Angioplasty With Optional Stenting. Circulation2007; 115: 2745–2749


Bosiers M, Deloose K, Callaert J et al Results of the Protégé EverFlex 200-mm-long nitinol stent (ev3) in TASC C and D femoropopliteal lesions. J Vasc Surg 2011; 54: 1042–50


Davaine JM, Azéma L, Guyomarch B et al One-year Clinical Outcome after Primary Stenting for Trans-Atlantic Inter-Society Consensus (TASC) C and D Femoropopliteal Lesions (The STELLA “STEnting Long de L’Artère fémorale superficielle” Cohort). European Journal of Vascular and Endovascular Surgery 2012; 44: 432–441


Banerjee S, Das SD, Abu-Fadel MS et al Pilot Trial of Cryoplasty or Conventional Balloon Post-Dilation of Nitinol Stents for Revascularization of Peripheral Arterial Segments The COBRA Trial. J Am Coll Cardiol 2012; 60: 1352–9


Zeller T, Saratzis N, Scheinert D et al Non-randomized, prospective, multi-centre evaluation of ABSOLUTE. 035 peripheral self-expanding stent system for occluded or stenotic superficial femoral or proximal popliteal arteries (ASSESS Trial): acute and 30-day results. J Cardiovasc Surg 2007; 48: 719–726


Ansel GM, Botti CF, George BS et al Clinical Results for the Training-Phase Roll-In Patients in the IntraCoil Femoralpopliteal Stent Trial. Cathet Cardiovasc Intervent 2002; 56: 443–449


Transition probabilities assumed for the therapy used for re-interventions

Index procedure
Re-intervention POBA BMS DES DCB
POBA 0% 20% 20% 10%
BMS 20% 10% 10% 40%
DES 50% 5% 5% 20%
DCB 20% 40% 50% 20%
Atherectomy + POBA 0% 20% 15% 10%
Atherectomy + BMS 5% 0% 0% 0%
Atherectomy + DES 5% 0% 0% 0%
Atherectomy + DCB 0% 0% 0% 0%
VlaBahn 0% 5% 0% 0%

ABI: ankle-brachial index; BMS: bare-metal stent; DCB: drug-coated balloon; DES: drug-eluting stent: POBA: plain old balloon angioplasty;


Analysis of all searched studies

Trial Age Male Sex (%) History of Smoking (%) Diabetes (%) Hypertension (%) Hyperlipidemia (%) Rutherford class ABI pre-treatment Lesion length (mm) Diameter stenosis (%)
THUNDER19 68 66 24 49 83 66 ≥1 0.9 ~74 90%
FEM-PAC32 68 60 42 50 80 59 ~91 % 2-3 0.9 ~59 85%
PACIFIER20 71 62 54 35 66 48 ~85% 2 0.7 68 ~35%
RESILIENT21 67 69 78 39 89 78 ~95% 2-3 —- ~67 74%
FAST22 67 69 70 33 83 61 ~96% 2-3 0.7 ~45 86%
ZILVER PTX SAS23 68 73 80 36 80 58 3 0.6 ~64 ~27%
ZILVER PTX RCT24 68 65 85 46 85 73 ~90% 2-3 0.7 ~64 ~27%
SIROCCO I25 66 72 39 39 69 64 1-CLI 0.6 ~83 ~63%
Shammas et al. 201126 69 64 33 46 81 76 1-CLI 0.8 ~91 —-
STRIDES27 69 57 37 39 78 57 83% 2-3 0.6 90 45%
Mlcarlet al.201233 68 81 63 36 86 74 92% 2-3 0.6 73 93%
SIROCCO II34 67 70 46 53 69 67 ~53% 3-4 —- 81
Shammas etal.201235 67 50 45 45 80 88 ~85% 2-3 0.8 90 —-
ABSOLUTE36 66 53 47 38 93 92 ~90% 3 —- 71
DURABILITY I 200929 68 74 56 46 80 70 ~87% 2-3 0.6 96 93%
DURABILITY I 201137 70 73 —- 70 80 70 avg2.8 0.6 242 —-
STELLA38 71 72 59 43 83 50 ~40.3% 3 —- 220 —-
COBRA39 65 93 60 100 98 94 3 0.6 110 —-
ASSESS40 67 77 33 41 53 76 20% TASCII B and 80% TASC II C 0.6 108 91%
Ansel et al 200241 68 62 77 35 66 58 ~16% 2-3 0.6 38

ABI: ankle-brachial index; TASC B, C: Type B or C femoro-popllteal lesions according to TASC II (Inter-Society Consensus for the Management of Peripheral Arterial Disease)

Copyright (c) 2015 The Authors

Creative Commons License
This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.