Blue Cross of Idaho Logo

Express Sign-on

Thank you for registering with Blue Cross of Idaho

If you are an Individual or Family Member under age 65, please register here.

If you are an Medicare or Medicare Supplement member, please register here.

New Options for Affordable Health Insurance

 

MP 7.01.128 Endobronchial Valves

Medical Policy    
Section
Surgery
 
Original Policy Date
11/2010
Last Review Status/Date
Reviewed with literature search/2:2013
Issue
2:2013
  Return to Medical Policy Index

Disclaimer

Our medical policies are designed for informational purposes only and are not an authorization, or an explanation of benefits, or a contract. Receipt of benefits is subject to satisfaction of all terms and conditions of the coverage. Medical technology is constantly changing, and we reserve the right to review and update our policies periodically.


Description

Endobronchial valves are synthetic devices that are deployed with bronchoscopy into ventilatory airways of the lung for the purpose of controlling airflow. They have been investigated for use in patients who have prolonged broncho-pleural air leaks, as well as an alternative to lung volume reduction surgery (LVRS) in patients with lobar hyperinflation from severe emphysema.

Background

Proper lung functioning is dependent upon a separation between the air-containing parts of the lung and the small vacuum-containing space around the lung called the pleural space. When air leaks into the pleural space, the lung is unable to inflate, resulting in hypoventilation and hypoxemia; this condition is known as a pneumothorax. A pneumothorax can result from a variety of processes including trauma, high airway pressures induced during mechanical ventilation, lung surgery, and rupture of lung blebs or bullae, which may be congenital or a result of chronic obstructive pulmonary disease (COPD).

Although an air leak from the lung into the pleural space may seal spontaneously, it often requires intervention. Techniques currently employed to attempt air leak closure include the following:

  • Inserting a chest tube (tube thoracostomy) and employing a water seal or one-way valve to evacuate air collected in the pleural space and prevent it from reaccumulating,
  • Lowering airway pressures by adjusting the mechanical ventilator,
  • Using autologous blood patches,
  • Performing a thoracotomy with mechanical or chemical pleurodesis.

An endobronchial valve is a device that permits one-way air movement. During inhalation the valve is closed preventing air flow to the diseased area of the lung. The valve opens during exhalation to allow air to escape from the diseased area of the lung. When used to treat persistent air leak from the lung into the pleural space, the endobronchial valve theoretically permits less air flow across the diseased portion of the lung during inhalation, aiding in air leak closure. The valve may be placed, and subsequently removed, by bronchoscopy.

Endobronchial valves have also been investigated for use in severe emphysematous COPD. In emphysematous COPD, peripheral lung tissue may form bullae. These diseased portions of the lung ventilate poorly, cause air trapping, and hyperinflate, compressing relatively normal lung tissue. They also may rupture, causing a pneumothorax. Use of an endobronchial valve is thought to prevent hyperinflation of these bullae.

Consideration for the use of endobronchial valves in COPD is based on the improvement observed in patients who have undergone lung volume reduction surgery (LVRS). LVRS involves excision of peripheral emphysematous lung tissue, generally from the upper lobes. The precise mechanism of clinical improvement for patients undergoing lung volume reduction has not been firmly established. However, it is believed that elastic recoil and diaphragmatic function are improved by reducing the volume of diseased lung. The procedure is designed to relieve dyspnea and improve functional lung capacity and quality of life; it is not curative. Endobronchial valves have been investigated as a non-surgical alternative to LVRS.

Regulatory Status

In October 2008, the IBV® Valve System (Spiration, Inc, Redmond, WA) was approved by the U.S. Food and Drug Administration (FDA) under the Humanitarian Device Exemption (HDE) for use in controlling prolonged air leaks of the lung or significant air leaks that are likely to become prolonged air leaks following lobectomy, segmentectomy, or lung volume reduction surgery (LVRS). An air leak present on postoperative day 7 is considered prolonged unless present only during forced exhalation or cough. An air leak present on day 5 should be considered for treatment if it is: 1) continuous, 2) present during normal inhalation phase of inspiration, or 3) present upon normal expiration and accompanied by subcutaneous emphysema or respiratory compromise. IBV Valve System use is limited to 6 weeks per prolonged air leak.

In December 2008, the Zephyr Endobronchial Valve (formerly Emphasys, now Pulmonx, Redwood City, CA) was considered by the Anesthesiology and Respiratory Therapy Device Panel for use as a permanent implant intended to improve forced air expiratory volume in 1 second (FEV1) and 6-minute walk test distance in patients with severe, heterogeneous emphysema who have received optimal medical management. The panel declined to recommend the device for FDA approval. As of January 2013, the Zephyr Endobronchial Valve has not been cleared by the FDA.


Policy 

Endobronchial valves are considered investigational as a treatment of prolonged air leaks.
Endobronchial valves are considered investigational as a treatment for patients with COPD or emphysema.

Policy Guidelines

Only one endobronchial valve device has approval from the U.S. Food and Drug Administration (FDA) through the Humanitarian Device Exemption (HDE) process for use in prolonged pulmonary air leaks.

Effective in 2013, there are CPT category I codes for this procedure:

31647: Bronchoscopy, rigid or flexible, including fluoroscopic guidance, when performed; with balloon occlusion, when performed, assessment of air leak, airway sizing, and insertion of bronchial valve(s), initial lobe

31648: with removal of bronchial valve(s), initial lobe

31649: with removal of bronchial valve(s), each additional lobe (List separately in addition to code for primary procedure)

31651: with balloon occlusion, when performed, assessment of air leak, airway sizing, and insertion of bronchial valve(s), each additional lobe (List separately in addition to code for primary procedure[s])

Effective 2011 to 2013, there were category III CPT codes for various aspects of this procedure:

0250T – Airway sizing and insertion of bronchial valve(s), each lobe (List separately in addition to code for primary procedure)

[Code 0250T would be reported with a bronchoscopy code like 31622 or 31634.]

0251T – Bronchoscopy, rigid or flexible, including fluoroscopic guidance, when performed; with removal of bronchial valve(s), initial lobe

0252T - Bronchoscopy, rigid or flexible, including fluoroscopic guidance, when performed; with removal of bronchial valve(s), each additional lobe (List separately in addition to code for primary procedure)


Benefit Application
BlueCard/National Account Issues

State or federal mandates (e.g., FEP) may dictate that all FDA-approved devices may not be considered investigational and thus these devices may be assessed only on the basis of their medical necessity.


Rationale 

Literature Review

This policy was created with a search of the MEDLINE database through October 2010. It was updated regularly; the most recent search of the MEDLINE database was for the period December 2011 through January 16, 2013. A summary of the key literature is as follows:

Treatment of air leaks

No randomized controlled trials (RCTs) or comparative observational studies were identified. Only case reports and case series data are available. The largest case series, published in 2009, reported on 40 patients treated at 17 sites in the United States and Europe; 6 of the patients had been included in previously published case reports. (1) Zephyr (Emphasys, now Pulmonx) endobronchial valves were used. Data were abstracted retrospectively from medical records. No specific eligibility criteria were reported, and patients did not need to demonstrate that they were refractory to other treatments. All patients in the series had prolonged pulmonary air leak (mean duration of 119 days, median of 20 days). Twenty-five patients had continuous air leaks, 14 had expiratory air leaks, and 1 was unidentified. The most common co-morbidities were cancer and COPD. Prior to the procedure, 39 of the 40 patients had at least 1 chest tube. Five patients had other treatments e.g., blood patch before valve placement. The mean number of valves placed per patient was 2.9 (standard deviation [SD]:1.9) overall. After valve placement, 19 patients (47.5%) had complete resolution of acute air leak, 18 (45%) had a reduction in air leak, 2 (5%) had no change, and data were not available for 1 patient. The mean time from valve placement to chest tube removal was 21 days, and the median time was 7.5 days (data from 2 patients were not available). Eight patients had the valves removed after the air leak ceased; in 32 patients, the clinician chose to leave the valves in place. Six patients experienced adverse effects related to valve placement including valve expectoration, moderate oxygen desaturation, initial malpositioning of a valve, pneumonia and Staphylococcus aureus colonization. The length of follow-up was highly variable, ranging from 5 to 1,109 days. At last follow-up, 16 patients were reported to have died; none of the deaths were attributed to the valve or the valve implantation procedure.

A case series was published in 2011 in which patients with pulmonary air leaks were treated with Spiration IBV valves. (2) Procedures were performed on a total of 9 patients; target airways could not be identified in 2 patients, and valves were placed in 7 patients. One of the 7 had 2 procedures due to development of an additional air leak after the first one was treated and resolved. The median duration of air leaks in the 7 patients before valve placement was 4 weeks (range, 2 weeks to 5 months). Complete air leak cessation occurred in 6 of 8 procedures after a mean duration of 5.2 days. The other 2 procedures resulted in reduction of air leak. There were no operative or postoperative complications attributed to the bronchial valves. The valves were removed in 5 of the 7 patients at a mean of 37 days after placement (range, 14 to 55 days). Valves were not removed in one patient who entered hospice care and in the patient who underwent 2 procedures because the patient declined removal.

Conclusions: The only available data on endobronchial valves for treating persistent air leaks are uncontrolled trials with small numbers of heterogenous patients. Data on the U.S. Food and Drug Administration (FDA)-approved endobronchial valve device are particularly limited. A small case series using the FDA-approved valves for treating air leaks reported on 9 patients; valves were successfully placed in 7 of them. This evidence is not adequate to determine the impact of this technology on the net health outcome, nor does it provide any evidence on comparisons with alternatives.

Treatment of emphysema

The published literature consists of one RCT and several case series.

Randomized controlled trial (RCT)

The RCT, called the Endobronchial Valve for Emphysema Palliation Trial (VENT) was an industry-sponsored multicenter multinational study. Findings from sites in the United States and Europe were reported separately. Results from the 31 U.S. sites were reported in 2010, and results from the 23 sites in Europe were reported in 2012. Key eligibility criteria were: diagnosis of heterogenous emphysema, forced air expiratory volume in 1 second (FEV1) of 15-45% of the predicted value, total lung capacity of more than 100% of the predicted value, residual volume of more than 150% of the predicted value, and post-rehabilitation 6-minute walk distance of at least 140 meters. Prior to randomization, all patients received 6-8 weeks of pulmonary rehabilitation and medical management that was optimized at the discretion of the treating physician, using guidelines from the Global Initiative for Chronic Obstructive Lung Disease (GOLD). Patients who remained eligible for the study after undergoing the preliminary treatment program were randomized to receive therapy using the Zephyr endobronchial valve or standard care. Patients were followed for 12 months and primary outcomes were reported after 6 months.

U.S. findings

As reported by Sciurba and colleagues, 321 patients in the U.S. were randomly assigned on a 2:1 basis to receive Zephyr endobronchial valves (n=220) or standard medical care (n=101). (3, 4) The mean number of valves placed in the endobronchial valve group was 3.8 per patient (range, 1 to 9). The primary effectiveness outcomes were percent change from baseline to 6 months in the FEV1 and distance on the 6-minute walk test. A total of 42 of 220 (19.1%) in the endobronchial valve group and 28 of 101 (27.7%) in the control group had missing data for the primary efficacy outcomes. Of the 70 patients with missing data, 6 had died, 4 were too ill to participate, and 60 dropped out or did not have follow-up within the specified time window. The data analysis was intention-to-treat and missing data were imputed. Primary outcome data at 6 months were as follows:

 

Outcome Endobronchial
valve group
(n =220)
Control group
(n =101)
Between-group
difference
p-value
FEV1      

Mean absolute percent
change from baseline

4.3 (1.4-7.2) -2.5 (-5.4 to 0.4)

6.8 (2.1 to 11.5)

p =0.005

Distance on 6-minute walk test      
Median change from baseline
(meters)
9.3 (-0.5 to 19.1) -10.7 (-29.6 to 8.1) 19.1 (1.3 to 36.8)
p =0.02
Median absolute percent
change from baseline
2.5 (-1.1 to 6.1) -3.2 (-8.9 to 2.4) 5.8 (0.5 to 11.2)
p =0.04

Among the secondary outcomes reported at the 6-month follow-up, quality of life was measured using the St. George’s Respiratory Questionnaire (SGRQ), which ranges from 0 to 100, with a higher score indicating a worse quality of life. At 6 months, the SGRQ score decreased -2.8 points (95% confidence interval [CI]: -4.7 to -1.0) in the endobronchial valve group and increased 0.6 points (95% CI: -1.8 to 3.0) in the control group. The between-group difference was -3.4 (95% CI: -6.7 to 0.2), which was statistically significant (p=0.04) but was less than the 4 points generally considered to represent a clinically meaningful difference. (5) According to body plethysmography, the mean change in total lung volume at 6 months was -1.2 (SD: 10.6) in the endobronchial valve group and -0.4% (SD: 13) in the control group; this difference was not statistically significant, p=0.41. Similarly, changes between groups in residual volume and inspiratory capacity were not statistically significant.

The primary safety variable was a composite measure consisting of 6 major complications (death, empyema, massive hemoptysis, pneumonia distal to valves, pneumothorax or air leak of more than 7 days’ duration or ventilator-dependent respiratory failure for more than 24 hours). The rate by 6 months was 6.1% in the endobronchial group and 1.2% in the control group. The between-group difference was 4.9% (95% CI: 1.0 to 8.8), which was not statistically different (p=0.08) and fell within the prespecified safety criteria. The adverse events to 6 months included 6 deaths (2.8%) in the endobronchial valve group and no deaths in the control group (p=0.19). Between 3 and 12 months, 25 of 214 (11.7%) patients in the endobronchial valve group followed over this time experienced chronic obstructive pulmonary disease (COPD) exacerbations; 22 of these events resulted in hospitalization. Over the same time period, 8 of 87 (9.2%) patients in the control group had COPD exacerbations, all of which resulted in hospitalization. The difference in number of exacerbations was not statistically significant. For hemoptysis (other than massive) between 3 and 12 months, there were 13 (6.1%) cases in the endobronchial valve group and none in the control group (p=0.02). Among the 214 patients who received valves and were followed to 12 months, there were 6 cases (2.8%) of valve expectoration, aspiration, or migration and 9 cases (4.2%) of bronchial granulation tissue. Valves were removed in 31 (14%) patients after 1 to 377 days; removal was based on investigators’ discretion; there was no specific protocol.

European findings

Herth and colleagues reported on 171 patients in the European cohort of the VENT; 111 patients were randomized to the endobronchial valve group and 60 patients to the standard care group. (6) During the course of the study, 10 patients died and 4 patients withdrew from the study. The number of patients who were lost to follow-up or missed a visit was 12 at 6 months and 21 at 12 months. A total of 154 of 171 (90%) patients completed the 6-month follow-up and 136 of 171 (80%) completed the 12-month follow-up. Primary outcome data at 6 months in the European cohort were as follows (outcome reporting was slightly different than it was in the U.S. cohort):

Outcome

Endobronchial valve group (n=220)

Control group (n=101)

Between-group difference (p value)

FEV1

 

 

 

Mean (SD) absolute percent change from baseline

7(20)

0.5 (19)

0.067

Distance on 6-minute walk test

 

 

 

Median (SD) change from baseline (meters)

15 (91)

10 (78)

0.070

Mean (SD) change in cycle ergometry workload change from baseline (watts)

2 (14)

-3 (10)

0.04

SD: standard deviation

At 12 months, mean (SD) change in FEV1 was 6 (26) in the endobronchial valve group and -2 (20) in the control group, p=0.0499. The mean (SD) change in cycle ergometry workload was 1 watt (13) in the endobronchial valve group and -5 watts (12) in the control group, p=0.03. Data on the 6-minute walk test at 12 months were not reported. Twenty percent of randomized patients did not provide data at 12 months.

Findings on the composite safety variable, reported for the U.S. cohort, were not reported for the European cohort. Herth et al. reported that serious complications and the rate of COPD exacerbations in the European cohort did not differ significantly between groups, and there were no reported cases of emphysema or massive hemoptysis. Five cases of pneumothorax requiring hospitalization for longer than 7 days were reported in the endobronchial valve group. There were 10 deaths, 6 in the endobronchial valve group and 4 in the control group; none were considered to be related to study procedures. Over the 12-month follow-up period, there were 13 cases of valve expectoration, aspiration or migration; this represented 12% of the 111 patients in the endobronchial valve group. Eight out of 13 events occurred in the first 90 days after valve placement.

Study limitations

A limitation of VENT was lack of blinding which could have affected performance on the primary efficacy outcomes, e.g., it may have affected clinicians’ coaching of patients and/or the degree of effort exerted by patients. In addition, there was a substantial amount of missing data on the 6-month primary efficacy variables in the U.S. cohort, about 28%. Most of the missing data was due to lack of compliance rather than death or illness. Although there was a pre-specified plan for handling missing data, with this degree of data missing, findings might not accurately represent outcomes in the population. Moreover, although Herth and colleagues reported that the study had sufficient statistical power, there tended to be wide confidence intervals, indicating an insufficiently large sample size. Also, some between-group differences, though statistically significant, may not be clinically significant, e.g. a 7-8% difference in absolute change from baseline in FEV1. Furthermore, an editorial accompanying publication of the U.S. findings noted that the rate of complications, such as COPD, were higher in the endobronchial valve group, albeit not statistically different. (7) The editorial additionally criticized the study for not standardizing medical treatment for the control group and for possibly providing suboptimal medical therapy for both groups, e.g., only 57% of patients received recommended bronchodilators at the beginning of the study, and that the medical therapy was not standardized.

Case series

A 2006 article by Wan and colleagues reported on 98 patients from 9 centers in 7 countries (not including the United States) who received Zephyr endobronchial valves for severe emphysema. (8) Data were obtained from a prospectively-collected multicenter registry. Patients had symptomatic emphysema and shortness of breath on daily activities despite optimized medical therapy; most were candidates for LVRS at the participating centers. A mean of 4 (SD: 1.6) valves were placed per patient (range, 1-8 valves). On average, there was statistically significant improvement in change from baseline to the 90-day follow-up in efficacy variables. For example, the mean absolute change in FEV1 was 0.06 liters (L) (SD: 0.21), and the mean absolute change in the 6-minute walk test was 36.9 (SD: 90) meters. The p values for change from baseline were 0.007 and less than 0.001, respectively. Among the 98 patients, there were 8 serious complications including 1 death, and 30 patients had other complications including 17 exacerbations of COPD and 5 pneumonias in untreated lobes.

An uncontrolled study published in 2010 by Sterman and colleagues evaluated the IBV Valve for treatment of severe emphysema. (9) Data were collected on 91 patients from 11 sites in the United States. All patients had heterogenous upper-lobe predominant emphysema. The aim of the study was predominantly to study safety of the valve; the primary outcome was the rate of observed migration, erosion, or infection during the first 3 months after placement. Effectiveness and quality of life were secondary outcomes. Patients were followed for up to 12 months.

A total of 609 valves were placed, with a mean of 6.7 valves per patient (range, 3-11). Seven patients withdrew from the study by 6 months; 5 of these withdrawals were due to adverse effects. Regarding the primary safety outcomes, there were no occurrences of valve migration or erosion during the 12-month follow-up. However, there were 2 instances of infection in the first 3 months, 1 episode each of pneumonia and bacterial bronchitis. Eight patients (8.8%) experienced bronchospasm (dyspnea and wheezing) after bronchoscopy; 2 patients had at least one valve removed due to bronchospasm. During the 12-month follow-up, 11 patients (12%) experienced pneumothorax. Three of these had pneumothorax with prolonged air leaks, and a total of 3 patients with pneumothorax died (one each on day 4, day 33 and day 113). There were no statistically significant improvements in the efficacy outcomes. The mean FEV1 was 0.87 liters at baseline (n=91) and 0.83 liters at 3 months (n=79). Among the 76 patients with data on the 6-minute walk test at 3 months, the mean distance walked had increased by 4 feet compared to baseline. However, there was improvement in quality of life, as assessed by the SGRQ. At 3 months, there was a mean decrease of 5.1 points (p=0.01), and 41 of 78 patients with available data (52.6%) were considered responders (a decrease in at least 4 points on the SGRQ).

Conclusions: For patients with advanced emphysema, case series and a single unblinded RCT provide insufficient evidence that the technology improves the net health outcome. In the RCT, there was a statistically significant change in FEV1 and in the 6-minute walk distance from baseline to 6 months in the U.S. cohort but not in the European cohort and a statistically significant change in FEV1 at 12 months in the European cohort. Twelve-month data were not reported for the U.S. cohort. Even when statistically significant, the magnitude of the improvements was of uncertain clinical significance. In addition, the numerous adverse events experienced by patients who received endobronchial valves raise concerns about the safety of the treatment.

Ongoing Clinical Trials

Implantation of Endobronchial Valves Versus Intrabronchial Valves in Patients With Severe Heterogeneous Emphysema (NCT01457833) (10): This is an open-label randomized controlled trial comparing implantation of the Zephyr endobronchial valve to implantation of the Spiration IBV valve. The study includes patients with advanced heterogenous emphysema. The primary outcome measure is improvement in pulmonary function after 6 months. As of January 2013, this study is recruiting patients.

 

Endobronchial valves in persistent air leak (NCT01451359) (11): This is a prospective open-label case series that is evaluating the Spiration endobronchial valve in patients with prolonged persistent air leak after anatomic surgical resection for cancer. As of January 2013, this study is recruiting patients.

Clinical Input Received through Physician Specialty Societies and Academic Medical Centers

In response to requests, input was received through one physician specialty society and three academic medical centers while this policy was under review for March 2011. While the various physician specialty societies and academic medical centers may collaborate with and make recommendations during this process, through the provision of appropriate reviewers, input received does not represent an endorsement or position statement by the physician specialty societies or academic medical centers, unless otherwise noted. Those providing input generally agreed that use of endobronchial valves is investigational for the treatment of emphysema. Regarding use of endobronchial valves for treating prolonged air leaks, reviewers acknowledged that only limited case series are available. Of the four reviewers, one supported the investigational indication, two supported the compassionate use of valves for treating prolonged air leaks, and the fourth thought that treatment of prolonged air leaks might be reasonable but had concerns about potential complications.

Summary

Endobronchial valves are synthetic devices that are deployed with bronchoscopy into ventilatory airways of the lung for the purpose of controlling airflow. There is insufficient evidence from small uncontrolled studies that endobronchial valves improve health outcomes in patients with persistent air leaks. For patients with advanced emphysema, case series and a single unblinded randomized controlled trial with limitations provide insufficient evidence that the technology improves the net health outcome. Therefore, given the insufficiency of the data, endobronchial valve placement for treatment of prolonged air leaks or emphysema is considered investigational.

Practice Guidelines, and Position Statements

In 2011, the British Thoracic Society published guidelines on advanced diagnostic and therapeutic flexible bronchoscopy in adults. (12) The guidelines stated that sufficient evidence has not yet been demonstrated to recommend the routine use of endobronchial valves for treatment of emphysema.

Medicare National Coverage

No national coverage determination.

References:

  1. Travaline JM, McKenna RJ, De GT et al. Treatment of persistent pulmonary air leaks using endobronchial valves. Chest 2009; 136(2):355-60.
  2. Gillespie CT, Sterman DH, Cerfolio RJ et al. Endobronchial valve treatment for prolonged air leaks of the lung: case series. Ann Thorac Surg 2011; 91(1):270-3.
  3. Sciurba FC, Ernst A, Herth FJ et al. A randomized study of endobronchial valves for advanced emphysema. N Engl J Med 2010; 363(13):1233-44.
  4. Sciurba FC, Ernst A, Herth FJ et al. A randomized study of endobronchial valves for advanced emphysema. N Engl J Med 2010; 363(13):esupplement.
  5. Jones PW, Quirk FH, Baveystock CM. The St George's Respiratory Questionnaire. Respir Med 1991; 85(Suppl B):25-31.
  6. Herth FJ, Noppen M, Valipour A et al. Efficacy predictors of lung volume reduction with Zephyr valves in a European cohort. Eur Respir J 2012; 39(6):1334-42.
  7. Anzeuto A. Endobronchial valves to reduce lung hyperinflation. N Engl J Med 2010; 363(13):1280-1.
  8. Wan IY, Toma TP, Geddes DM et al. Bronchoscopic lung volume reduction for end-stage emphysema. Chest 2006; 129(3):518-26.
  9. Sterman DH, Mehta AC, Wood DE et al. A multicenter pilot study of a bronchial valve for the treatment of severe emphysema. Respiration 2010; 79(3):222-33.
  10. Heidelberg SbtUo. Implantation of Endobronchial Valves Versus Intrabronchial Valves in Patients With Severe Heterogeneous Emphysema (NCT01457833) Available online at: www.clinicaltrials.gov. Last accessed January, 2013.
  11. Leuven SbUZ. Endobronchial valves in persistent air leak (NCT01451359). Available online at: www.clinicaltrials.gov. Last accessed January, 2013.
  12. Du Rand IA, Barber P, Goldring J et al. Summary of the British Thoracic Society Guidelines for advanced diagnostic and therapeutic flexible bronchoscopy in adults. Thorax 2011; 66(11):1014-5.

 

Codes

Number

Description

CPT

31647

Bronchoscopy, rigid or flexible, including fluoroscopic guidance, when performed; with balloon occlusion, when performed, assessment of air leak, airway sizing, and insertion of bronchial valve(s), initial lobe (new code 1/1/13)

  31648 ;with removal of bronchial valve(s), initial lobe (new code 1/1/13)
  31649 ;with removal of bronchial valve(s), each additional lobe (List separately in addition to code for primary procedure) (new code 1/1/13)
  31651 ;with balloon occlusion, when performed, assessment of air leak, airway sizing, and insertion of bronchial valve(s), each additional lobe (List separately in addition to code for primary procedure[s]) (new code 1/1/13)

ICD-9-CM Diagnosis

  Investigaitonal for all diagnoses
ICD-9-CM Procedure 33.71 Endoscopic insertion or replacement of bronchial valve(s), single lobe
  33.73 Endoscopic insertion or replacement of bronchial valve(s), multiple lobes
   33.78 Endoscopic removal of bronchial device(s) or substances
ICD-10-CM (effective 10/1/14)    Investigational for all diagnoses
   J43.0-J43.9 Emphysema code range
   J44.0-J44.9 COPD code range (used for emphysema
with chronic obstructive bronchitis)
ICD-10-PCS (effective 10/1/14)    ICD-10-PCS codes are only used for inpatient services.
   0BH38GZ, 0BH48GZ, 0BH58GZ, 0BH68GZ, 0BH78GZ, 0BH88GZ, 0BH98GZ, 0BHB8GZ Surgical, respiratory system, insertion, via natural or artificial opening endoscopic, endobronchial valve; codes specific to type of bronchus and left or right
Type of service Surgery   
Place of Service Inpatient, Outpatient   


Index

Enphysema, Endobronchail valve
Endobronchial valve, Emphysema


Policy History

Date

Action

Reason

11/11/10

Add to Surgery section

New policy created with literature search through October 2010; considered investigational.

3/10/11 Replace policy Policy updated with clinical input and a literature search through January 2011. Reference 3 added; other references reordered. Policy statement unchanged.
02/09/12 Replace policy Policy updated with clinical input and a literature search through December 2011. References 10, 12 and 13 added; other references reordered. Policy statements unchanged.
11/8/12 Replace policy- coding update only CPT coding updated
02/14/13 Replace policy Policy updated with a literature search through January 16, 2013. Reference 6 added; other references reordered. Policy statements unchanged.