UroLift for treating lower urinary tract symptoms of benign prostatic hyperplasia
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3 Evidence
Clinical evidence from the original guidance
Relevant evidence comes from 1 systematic review and 1 translation of an uncontrolled case series
3.1 In the original UroLift medical technologies guidance, the external assessment centre (EAC) considered 1 systematic review summarising 9 studies (reporting outcomes for 452 to 680 people, depending on the outcome) and 1 uncontrolled case series (reporting outcomes from 20 people). The EAC identified no further evidence. The studies relevant to the decision problem in the scope were:
9 studies in the systematic review including 2 papers on a randomised controlled trial (RCT; the LIFT study; McVary et al. 2014; Roehrborn et al. 2013) and 7 uncontrolled before-and-after studies (Cantwell et al. 2014; Chin et al. 2012; Delongchamps et al. 2012; McNicholas et al, 2013; Shore et al. 2014; Woo et al. 2011 and 2012).
1 English language translation of an uncontrolled case series (Abad et al. 2013).
For full details of the clinical evidence, see section 3 of the assessment report.
There is no published comparison of UroLift with TURP and HoLEP
3.2 In the original guidance, there was no published evidence directly comparing the UroLift System with the comparator technologies highlighted in the scope. So, the EAC did an evidence synthesis of the outcomes in the UroLift studies and compared them with those reported with transurethral resection of the prostate (TURP) and holmium laser enucleation of the prostate (HoLEP) in a systematic review (Li et al. 2014).
UroLift improves symptoms of benign prostatic hyperplasia, but not as much as TURP or HoLEP
3.3 The EAC's evidence synthesis showed that both TURP and HoLEP were associated with greater improvements in International Prostate Symptom Score (IPSS) than UroLift at all time points. Overall changes within a 2-year period ranged from -17.34 to -19.7 with TURP and -17.68 to -20.88 with HoLEP, compared with -9.22 to -11.82 with UroLift. Qmax and post-void residual improvements were also greater with TURP and HoLEP.
UroLift improves quality of life, but not as much as TURP or HoLEP
3.4 The EAC's data synthesis reported that the IPSS quality-of-life score improved by 2.22 to 2.48 points for people having UroLift treatment. However, this was less than the improvement after TURP (2.99 to 3.18 points) and HoLEP (2.64 to 3.24 points). An increase of 1 to 3 points is generally considered to represent a minimum important change.
UroLift does not damage sexual function
3.5 Evidence showed that sexual function is not negatively affected after using UroLift. In fact, small, statistically significant improvements (0.3 to 0.4 points, based on combined sexual health scores reported in the meta-analysis) were reported. Changes in sexual function were poorly reported in the TURP and HoLEP studies, which made it difficult to accurately assess the effect of these technologies. Expert advice was that deterioration in sexual function was well described and seen in practice in some people having TURP or HoLEP.
New clinical evidence
New relevant evidence comes from 12 publications, including 2 RCTs, and 6 NICE shared learning case studies
3.6 For the guidance update, the EAC considered a total of 12 new studies (1,938 people) and 6 NICE shared learning case studies relevant to the decision problem in the scope. These were published after the original guidance was published. The scope for the guidance update included 1 additional comparator, Rezum. One study was found comparing Rezum with UroLift (Tutrone and Schiff, 2020), which was included in the EAC's evaluation of the evidence. The studies relevant to the updated scope were:
2 RCTs reported in 5 papers: The LIFT study (reported in Roehrborn et al. 2015 with Rukstalis et al. 2016 and Roehrborn et al. 2017 reporting trial follow-up data) and the BPH6 study (reported by Sonksen et al. 2015; Gratzke et al. 2016)
2 non-randomised, comparative, prospective studies (Tutrone and Schiff 2020; Rukstalis et al. 2018)
2 non-comparative, prospective, multicentre studies (Sievert et al. 2019; Rubio et al. 2019)
1 retrospective non-comparative study (Bozkurt et al. 2016)
1 single-centre, single-surgeon retrospective note analysis (Bardoli et al. 2017)
1 retrospective multicentre chart analysis (Eure et al. 2019)
6 NICE shared learning case studies (Royal Devon and Exeter NHS Trust 2020; Northampton NHS Trust 2020; Norfolk and Norwich NHS Trust 2019; NHS Fife 2020; NHS St Helens and Knowsley 2016; NHS Frimley Park 2016).
For full details of the clinical evidence, see section 3 of the assessment report update.
Long-term symptoms of benign prostatic hyperplasia significantly improved with UroLift
3.7 In 7 studies there were statistically significant improvements in symptom severity (IPSS score) and in 4 studies there were improvements in Benign Prostatic Hyperplasia Impact Index (BPHII) score up to 5 years after the UroLift procedure (Roehrborn et al. 2015; Bozkurt et al. 2016; Rukstalis et al. 2016; Bardoli et al. 2017; Roehrborn et al. 2017; Sievert et al. 2018; Eure et al. 2019 and Rubio et al. 2019; Rukstalis et al. 2018).
3.8 Compared with TURP, people having UroLift reported smaller improvements in IPSS scores up to 12 months after the procedure (Sonksen et al. 2015; Gratzke et al. 2016). Compared with Rezum, people having Urolift reported greater improvements in IPSS scores at 30 days after the procedure (Tutrone and Schiff, 2020).
Urinary flow and retention symptoms improve over time with UroLift
3.9 Maximum urinary flow (Qmax) improved up to 5 years after UroLift treatment in most studies (Roehrborn et al. 2015; Bozkurt et al. 2016; Rukstalis et al. 2016; Roehrborn et al. 2017; Sievert et al. 2018; Rubio et al. 2019; Rukstalis et al. 2018). However, Eure et al. (2019) found that Qmax decreased up to 6 months after the procedure and no significant difference in Qmax was reported by Bardoli et al. (2017).
3.10 In 4 studies there was a statistically significant improvement (up to 12 months) in post-urination residual volume (Bozkurt et al. 2016; Rukstalis et al. 2016; Bardoli et al. 2017; Sievert et al. 2018). Gratzke et al. (2016) reported that Incontinence Severity Index scores remained unchanged up to 2 years after treatment with Urolift.
3.11 TURP was reported to produce greater improvements in Qmax and post-urination residual volume up to 24 months after the procedure compared with UroLift (Sonksen et al. 2015; Gratzke et al. 2016).
UroLift does not negatively affect sexual function
3.12 In most studies, the UroLift procedure did not result in statistically significant changes in erectile dysfunction when assessed using the International Index of Erectile dysfunction and the Sexual Health Inventory for Men (SHIM) questionnaires (Bozkurt et al. 2016; Rukstalis et al. 2016; Rubio et al. 2019). However, in people with obstructive median lobes, there were improvements in both measures up to 12 months after the procedure (Rukstalis et al. 2018). The amount of change in SHIM scores did not differ significantly between UroLift and TURP (Sonksen et al. 2015; Gratzke et al. 2016) but was better with UroLift than Rezum (Tutrone and Schiff, 2020).
3.13 In 5 studies, Male Sexual Health Questionnaire for Ejaculatory Dysfunction (MSHQ-EjD) scores after Urolift and other treatments were reported. In 2 of these, there were improvements over time after Urolift (Roehrborn et al. 2015; Rukstalis et al. 2018). In 2 other studies there were no significantly greater improvements over time with Urolift compared with TURP (Sonksen et al. 2015; Gratze et al. 2016). In 1 study there was no significant difference in scores between people who had UroLift or Rezum at 30 days follow up (Tutrone and Schiff, 2020).
UroLift reduces the rate and duration of post-operative catheterisation compared with TURP and Rezum
3.14 In the TURP group 74% of people needed catheterisation for more than 24 hours compared with 45% of the UroLift group (Sonksen et al. 2015). In the UroLift group 57% of people compared with 87% in the Rezum group needed post-procedure catheterisation (Tutrone and Schiff, 2020).
3.15 Catheterisation time after UroLift was statistically significantly less than with Rezum (1.2 days compared with 4.5 days; Tutrone and Schiff, 2020).
UroLift improves quality of life
3.16 Eleven studies measured quality of life, with 8 showing a statistically significant improvement up to 5 years after UroLift treatment.
3.17 Quality-of-life scores for people having UroLift were statistically significantly better than for people having Rezum (Tutrone and Schiff, 2020). In Sonksen et al. (2015) and Gratzke et al. (2016) there were no statistically significant differences between quality-of-life scores after TURP and UroLift at up to 12 and 24 months, respectively.
UroLift reduces the length of hospital stay compared with TURP
3.18 One study (Sonksen et al. 2015) compared UroLift with TURP. It reported that hospitalisation times were reduced for UroLift (time to discharge 1.0 days) compared with TURP (1.9 days).
UroLift is effective for treating benign prostatic hyperplasia with an obstructive median lobe
3.19 One small study (Rukstalis et al. 2018) that included 45 people described the clinical effectiveness of using UroLift in people with an obstructive median lobe. UroLift significantly reduced BPHII and IPSS scores of symptom severity and significantly improved sexual function (MSHQ-EjD score), quality-of-life measures and urological outcomes (Qmax values).
Case studies show that UroLift is beneficial in an NHS setting
3.20 All 6 NICE shared learning case studies suggested that UroLift was beneficial in an NHS setting, resulting in improved IPSS and quality-of-life scores, reduced surgery times and reduced hospital stay. In 1 case study, the use of either general or local anaesthetic was compared, and no statistically significant differences were reported in IPSS, quality of life and pain scores after the procedure (NHS Fife, 2020).
Cost evidence
The company's updated cost model is based on the original model but Rezum is a comparator and median lobe treatment is included
3.21 The company updated the original economic model to include Rezum as a comparator and median lobe treatment. Clinical parameters for UroLift were based on the LIFT trial, using 5-year post-procedure data (Roehrborn et al. 2017). The original guidance was based on clinical parameters from the same trial at 1 and 2 years after the procedure (Roehrborn et al. 2013 and 2014). For full details of the cost evidence, see section 4 of the assessment report update.
The EAC adjusts assumptions in the cost model
3.22 The EAC updated some of the model's parameters, including the cost of incontinence to cover the 5-year time horizon, the consumables costs for TURP procedures and the NHS reference costs.
The updated costs include a reduced number of implants used per surgery and reduced theatre time
3.23 The overall cost of UroLift was reduced by £200 per surgery because of adjustments in the number of devices implanted and the duration of surgery. The number of implants per surgery was reduced from 4 to 3.5 and the length of theatre time was decreased from 30 minutes to 14 minutes based on submitted audit data. These data were collected from NHS trusts over the past 3 years for 552 people who had treatment. The findings were supported by local audits carried out in NHS trusts and described in NICE shared learning case studies (NHS Fife 2020; **************; ******************; Royal Devon and Exeter NHS Trust 2020; Norfolk and Norwich NHS Trust 2019).
Surgery follow up is changed to a telephone consultation
3.24 Changing the follow up for UroLift surgery from a face-to-face consultation to a telephone consultation reduced the cost by £72.33 per consultation. This was based on an EAC cost of £37 for 20 minutes of band 6 nurse time.
Costs increase for bipolar TURP, monopolar TURP and HoLEP compared with the original guidance
3.25 In the model update the costs of bipolar TURP and monopolar TURP increased compared with the original guidance. This was because of an increase in consumables costs for bipolar TURP, and to a lesser extent for monopolar TURP. The cost of managing incontinence was also applied to the whole population who have treatment instead of only when treatment has failed.
The revised EAC base-case analysis shows that UroLift is cost saving when compared with all comparators
3.26 The EAC's revised base-case analysis showed that when Urolift is done as an outpatient procedure, UroLift is cost saving, per person, by:
£121 compared with Rezum
£1,006 compared with bipolar TURP
£1,267 compared with monopolar TURP and
£1,255 compared with HoLEP.
When UroLift is done as a day-case procedure, it is cost saving, per person, by:
£96 compared with Rezum
£981 compared with bipolar TURP
£1,242 compared with monopolar TURP and
£1,230 compared with HoLEP.
3.27 The EAC concluded that UroLift is cost saving compared with monopolar TURP, bipolar TURP and HoLEP in the base case and in the company's and EAC's scenarios.
There is uncertainty as to whether UroLift is cost saving compared with Rezum
3.28 The economic model was compared with the model used in NICE's medical technologies guidance on Rezum. The committee concluded that there were too many uncertainties to draw firm conclusions about the costs of using Rezum compared with UroLift. However, the base-case model results showed that Rezum was cost saving when compared with UroLift. The key parameters that were changed in the current model were theatre time, length of stay and type of consultation after UroLift. If length of hospital stay was the same for Rezum and UroLift, Rezum would be cost saving compared with UroLift. However, the EAC's sensitivity analysis concluded that UroLift was only cost saving compared with Rezum if theatre time for the procedure was less than 16.7 minutes.
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