Treatment strategy and decision-making for elderly surgical candidates with early lung cancer
Review Article

Treatment strategy and decision-making for elderly surgical candidates with early lung cancer

Jiro Okami

Department of General Thoracic Surgery, Osaka International Cancer Institute, Osaka, Japan

Correspondence to: Jiro Okami, MD, PhD. Department of General Thoracic Surgery, Osaka International Cancer Institute, 3-1-69 Otemae, Chuouku, Osaka 541-8567, Japan. Email: Okami-ji@mc.pref.osaka.jp.

Abstract: Among elderly cancer patients of the same chronological age, there is a wide range of heterogeneity in their ability to tolerate surgery. When an elderly patient comes to a thoracic surgeon, the surgeon first considers how healthy the patient is. If the patient looks healthy or in fit condition, the surgeon offers lobectomy plus mediastinal lymph node dissection. On the other hand, if the patient looks frail, the surgeon may offer, instead of a standard treatment, lobectomy without lymph node dissection, sublobar resection, or radiotherapy or may not offer any kind of treatment. This review was conducted to obtain an overview of these options and compare the treatment outcomes reported in the literature for the purpose of making a good decision for elderly surgical candidates with early lung cancer.

Keywords: Elderly; lung cancer; treatment strategy; decision-making; surgery; radiotherapy


Submitted Feb 10, 2019. Accepted for publication Mar 29, 2019.

doi: 10.21037/jtd.2019.04.01


Introduction

The general population in many developed countries is aging. According to the Japanese national statistics on population in 2017 (1), average life expectancy was 81.1 years in men and 87.3 years in women. The median residual life expectancy at age 80 years was 9.0 years in men and 11.8 years in women. Non-small cell lung cancer (NSCLC) is the most common malignancy and is a disease of the elderly.

The current standard treatment of early stage NSCLC is lobectomy plus mediastinal lymph node dissection, regardless of lymph node involvement. This procedure is feasible and safe even in octogenarians, given the appropriate selection of surgical candidates (2). According to the evidence-based clinical practice guidelines, in elderly patients who are potential candidates for curative surgical resection, surgery should not be dismissed based solely on chronologic age (3). However, if the patient’s general status is impaired, other treatment options, such as lobectomy without lymph node dissection, sublobar resection, and radiotherapy would be considered (Figure 1). For a subset of the patients, no radical treatment may be offered because of the patient’s poor condition. When treating elderly patients with lung cancer, patients’ conditions, such as comorbid diseases and functional impairment due to aging, are a significant concern. Decision-making before surgery must therefore carefully balance the risks and benefits from the short- and long-term perspectives.

Figure 1 Treatment options for elderly patients with early-stage non-small cell lung cancer. LND, lymph node dissection.

The purpose of this review article is to provide an overview of the options and to compare the treatment outcomes reported in the literature.


Treatment patterns

Among elderly cancer patients of the same chronological age, there is a wide range of heterogeneity in physical, mental, and social conditions. When an elderly patient comes to a thoracic surgeon, the surgeon will first consider how healthy the patient is. If the patient looks healthy or in fit condition, the surgeon offers standard treatment. On the other hand, if the patient looks particularly frail, the surgeon may not offer any kind of treatment (Figure 2). In a clinical practice, a substantial percentage of elderly patients are in a vulnerable condition. They are neither 100% healthy nor very frail. For such patients, standard treatment is possible, but there are higher risks.

Figure 2 Decision-making for elderly patients according to the patients’ frailty.

Treatment patterns for elderly patients with stage I NSCLC have been reported (4-10). The percentages of surgery, radiotherapy, and no treatment were different among the different age groups (Figure 3). According to the Japanese hospital-based cancer registry, the majority of younger patients received surgery alone, while a greater proportion of patients aged 85 years or over received radiation therapy (34.9%) or did not receive any cancer treatment (25.4%) (6). This age-dependent treatment pattern was similarly observed in other reports of the population-based database (4,5). In the report from the Netherlands, the study period was divided into two halves, and the treatment pattern was compared between the first half [2004–2008] and the second half [2009–2013] (4). The use of surgery remained constant, while that of radiotherapy increased in the second half, and fewer patients received neither treatment over the years. From these data, patients with early stage lung cancer received different treatments based on their age, and older patients were less likely to receive surgery.

Figure 3 Treatment patterns for patients with stage I non-small cell lung cancer according to the patients’ age (4-6).

If the patients do not receive any cancer treatment, their prognosis is miserable (11-13). It has been demonstrated that the median overall survival of patients with untreated early stage NSCLC ranges from 9 to 14 months. The majority of these patients died of progressive cancer resulting in metastatic disease or respiratory compromise rather than comorbid conditions. Nanda et al. compared outcomes in patients older than 70 years with early stage NSCLC between stereotactic radiotherapy (SBRT) and no treatment with data from the national cancer database. Untreated patients had a poorer median survival of 10.1 months, compared with 29 months for patients who had been treated with SBRT (P<0.001) (11). This survival benefit of SBRT was consistently observed across all age groups, including those patients aged 85 years and older. The authors concluded that the use of SBRT for the treatment of elderly patients with comorbid conditions was supported.

In summary, treatment patterns vary according to the patients’ age, and patients of highly advanced age with stage I NSCLC are less likely to receive surgery than their younger counterparts.


Surgery or radiotherapy

Surgery offers the highest probability of cure in early stage NSCLC. However, surgeons often hesitate to recommend pulmonary resection for elderly patients because of the higher perioperative risks and the uncertain long-term benefit. For such patients, radiotherapy is an alternative option. According to the guidelines, for patients with comorbidities or other reasons for inoperability, presenting with a peripherally located stage I NSCLC, or any patient refusing surgery, SBRT is the preferred treatment (14).

These modalities have been compared in two randomized controlled trials, but they were terminated early before completion of the study due to poor patient accruals. Although a pooled analysis of them was published (15), the total number of evaluable patients for both studies was very low, and the conclusion has not been well accepted (16). For this reason, propensity score-matched comparisons between SBRT and surgery are examined in this section (Table 1).

Table 1
Table 1 Propensity score-matched comparisons between SBRT and surgery
Full table

Palma et al. compared overall survival after surgery versus SBRT in elderly patients (75 or older) with stage I NSCLC from the North-Holland population-based registry (17). The mean age of both cohorts was 79 years. The 3-year overall survival (OS) was 42% for SBRT and 60% for surgery, and the difference was not significant (P=0.22). The authors concluded that similar OS outcomes are achieved with surgery or SBRT. Another comparison of the Surveillance, Epidemiology, and End Results database (SEER) in the USA of elderly patients (median age of the overall cohort: 75 years) demonstrated similar overall survival and lung cancer-specific survival (CSS) at 3 years for lobectomy and SBRT (HR: 1.01, P=0.94 for OS and HR: 1.00, P=0.99 for CSS) (19). According to an institutional retrospective comparison between SBRT and sublobar resection (SLR) from Japan, the differences in OS and cancer-specific death rates were both not significant (5-year OS 40.4% for SBRT and 55.6% for SLR, P=0.124; 5-year CSS 35.3% for SBRT and 30.3% for SLR, P=0.427) for smaller-sized tumors (mean tumor size ≤2.2 cm) in patients at high risk for lobectomy (20). These three studies were all characterized by advanced patients’ age.

Four matched-pair comparisons reported from surgeons are also listed in Table 1. A national population-based, retrospective cohort study from the SEER database compared CSS and OS after thoracoscopic resection and SBRT for elderly patients (≥66 years) according to tumor size (22). In the analysis of patients with smaller tumors (≤2.0 cm), overall survival was better in the surgery group (HR: 1.80, P<0.001; 52.2% for SBRT and 68.4% for sublobar surgery at 3 years), and CSS was similar in both groups (HR: 1.32, P=0.32; 82.6% for SBRT and 86.4% for sublobar surgery at 3 years). For tumors sized ≤5.0 cm, OS and CSS were both better in the surgery group (HR: 1.92, P<0.001 for OS and 2.10, P<0.001 for CSS). Crabtree et al. collected 56 matched pairs from among 458 surgical patients and 151 SBRT patients in their institution and showed better OS and disease-free survival in the surgical group (3-year OS 52% for SBRT and 69% for surgery, P=0.05; 3-year DFS 47% for SBRT and 65% for surgery, P=0.01) (18). Puri et al. collected 5,355 pairs of SBRT versus surgery and 4,555 pairs of SBRT versus sublobar resection using a propensity scoring method from the national cancer database in the USA (21). They demonstrated that median survival was longer in the surgical group than in the corresponding SBRT group (62.3 months for surgery vs. 33.1 months for SBRT, P<0.001). A similar result was obtained comparing SLR and SBRT (48.3 months for sublobar resection vs. 33.9 months for SBRT, P<0.001). Rosen et al. (23) demonstrated a striking difference in OS between SBRT and lobectomy in healthy patients with stage I lung cancer (5-year survival 59% for lobectomy vs. 29% for SBRT P<0.001, and median survival 71 months for lobectomy and 39 months for SBRT).

In summary, among seven reports, four reports showed survival advantages with surgical treatment, and three showed similar long-term outcomes. With older patient age, the difference in OS between surgery and SBRT seems to be less.


Lobectomy or sublobar resection

Lobectomy has been the standard of care for NSCLC, except adenocarcinoma in situ or minimally invasive cancer, since the Lung Cancer Study Group demonstrated a threefold increase of local recurrence and a tendency toward decreased survival among patients who underwent sublobar resection (24). Sublobar resection such as wedge resection and segmentectomy could be indicated in patients with stage I NSCLC, who may tolerate operative intervention but not a lobar resection because of comorbid disease or decreased cardiopulmonary function. Since cardiopulmonary function decreases with age, elderly patients may benefit from pulmonary parenchyma-preserving surgery in compensation for the risk of local recurrence. In fact, sublobar resection was performed in one-third (33.2%) of stage I NSCLC in cases in octogenarians (25).

In this context, several retrospective studies supported sublobar resection as an alternative for elderly patients. According to the data from the National Cancer registry in the USA, although lobectomy confers significant survival benefit over limited resection in younger patients, the significant difference in survival between lobectomy and sublobar resection disappeared at 71 years of age and the older population (26).

There are several reports comparing overall survival between lobectomy and sublobar resection in elderly patients with stage I NSCLC in a retrospective manner (Table 2). Four institutional and one multicenter report demonstrated equivalent overall survivals between two surgical procedures for elderly patients (27,28,30-32). On the other hand, two propensity score-matching comparisons of SEER demonstrated better long-term survival after lobectomy than that after sublobar resection (19,29). Shirvani et al. showed that sublobar resection was associated with worse OS and CSS than lobectomy in elderly patients (66 years or older) (19). In another matched analysis, the long-term outcomes were compared in patients age ≥65 years with small sized tumors (≤2.0 cm) between lobectomy and sublobar resection according to tumor histology (29). In patients with adenocarcinoma, segmentectomy was equivalent to lobectomy, but wedge resection was inferior to lobectomy in terms of overall survival. In patients with squamous cell carcinoma, wedge resection or segmentectomy was not equivalent to lobectomy.

Table 2
Table 2 Comparison between lobectomy and sublobar resection in elderly patients with stage I NSCLC
Full table

In addition to the long-term outcomes, postoperative complications are another serious concern when treating elderly patients. Tsutani and others found that lobectomy was an independent predictive factor for postoperative complications (27,30,32). Okami et al. and Kilic et al. reported that the occurrence of complications after sublobar resection was similar to that after lobectomy in a report of an unmatched cohort (28,31). This was explained by the fact that patients undergoing sublobar resection as a less invasive option had more comorbid diseases than patients undergoing lobectomy. As seen in the previous randomized trial, locoregional recurrence was more frequently observed in patients after sublobar resection (28,30-32). Notably, when the locoregional recurrence rate after sublobar resection was compared between segmentectomy and wedge resection, the rate was significantly higher in patients with wedge resection (31).

In summary, sublobar resection seems to become an alternative option for elderly patients (≥75 years). Segmentectomy may have the advantage over wedge resection of reducing locoregional recurrence.


Lymph node dissection

Although evidence for the survival benefit of mediastinal lymph node dissection has not been reported, this procedure is routinely performed with lobectomy as a standard of care. Even if 18F-fluorodeoxy glucose-positron emission tomography (FDG-PET) is used, preoperative nodal staging is not the same as the pathological staging after surgery. It is known that occult or unexpected lymph node metastasis is found in 5–15% of patients with preoperative N0 disease. Therefore, lymph node dissection is essential to achieve the highest probability of microscopic complete resection. In addition, if nodal metastasis is found by lymph node dissection, patients may have an opportunity to receive adjuvant chemotherapy, which provides a modest survival benefit (33).

Mediastinal lymph node dissection is generally a small surgical procedure. It requires an additional 15–30 min of operative time and 5–20 mL of blood loss if uneventful. However, for elderly patients, if the patients are thought to be at higher risk for lobectomy, surgeons would consider skipping this procedure to minimize surgical intervention. According to the EORTC (European Organization for Research and Treatment of Cancer) taskforce recommendation, omission of mediastinal lymph node dissection is proposed (34). There are several reports regarding this issue, and the references are classified into the Pros and the Cons of this proposal in Table 3. Three institutional reports demonstrated no survival benefit of lymph node dissection in elderly patients (35-37). Chida et al. also observed the increased number of postoperative cardiac complications in patients after mediastinal lymph node dissection (35). From a nationwide analysis of patients aged ≥80 years with stage I NSCLC, lymph node dissection was identified as one of the risk factors for postoperative complications on multivariate analysis (28). From the surgical point of view, recurrent laryngeal nerve exposure, devascularization of the bronchial wall, and increased surgical exudate or bleeding due to lymph node dissection are thought to be associated with several possible complications.

Table 3
Table 3 Lymph node dissection for elderly patients
Full table

Rivera et al. demonstrated that unexpected lymph node metastasis in preoperative N0 disease was more common in the elderly population than in their younger counterpart (39). Shapiro et al. compared perioperative mortality and morbidity in elderly patients (≥65 years) with stage I NSCLC after extensive (>10 nodes) lymph node dissection or limited (≤10 nodes) lymph node dissection (38). Since the results were similar in the two groups, they concluded that extensive lymph node dissection is safe, without compromising postoperative recovery.

A couple of key points summarize the discussion. First, omission of mediastinal lymph node dissection can be considered an option after accurate preoperative staging because this procedure may increase operative risks in elderly patients. Second, if the patients cannot tolerate evidence-based adjuvant chemotherapy, the benefit of lymph node dissection will be limited.


Pre-operative risk assessment and post-treatment outcomes

To decide the optimal treatment strategy, the preoperative assessment of elderly patients is a critical process. There are several reports identifying risk factors for surgery in elderly patients. Recent publications and risk factors are listed in Table 4. Impaired pulmonary function, higher age, male sex, comorbidities, type of surgery, and advanced lung cancer (stage or tumor size) are common factors.

Table 4
Table 4 Postoperative complications and risk factors
Full table

The only prospective study demonstrated that the comprehensive geriatric assessment (CGA) score was one of the significant factors affecting postoperative complications (40). The CGA7 measures the level of functional independence in the following 7 categories: greeting, bathing, transportation, continence, cognition, short-term memory, and mood. It is widely used as a tool for identifying problems in daily life and achieving a holistic medical approach in older adults. Of these factors, short-term memory was identified as the most important factor. To evaluate severity of comorbidities, Charlson Comorbidity Index (CCI) was used in this study. After the statistical analysis, diabetes mellitus is identified as the most important factor in the comorbid diseases. Following the risk analyses, the authors developed a simplified risk scoring system to predict severe postoperative complications. Based on the scoring system, 19.7% and 3.0% of surgical patients ≥80 years were classified into the low-risk (<5%) group and the high-risk (≥25%) group for severe complications, respectively. A prospective validation of this system is awaited. Detillon et al. analyzed the Dutch Lung Surgery Audit database to determine the postoperative outcomes of lung cancer resections and compared the results among three age groups: ≥80, 70–79, and 60–69 years (41). They identified pulmonary function and extensive resection as the most significant factors in the highest age group. Postoperative mortality in octogenarians was 6.0% and age ≥80 years was an independent predictor of operative mortality. They suggested that octogenarians could benefit from limited resection if oncologically justified.

Overall survival is the gold standard to evaluate postoperative outcomes in the general population. However, is it always true for elderly patients, because their life expectancy is obviously limited, even though it has been extended in the population statistics? Assuring a better and comfortable life may be more important than trying to cure the disease with radical treatment or to extend biological survival under poor conditions. The use of quality of life (QOL) assessments has been introduced to evaluate postoperative outcomes. Numerous publications have been found in the literature. Among them, the QOL studies in elderly patients are listed in Table 5.

Table 5
Table 5 Quality of life after surgery in elderly patients
Full table

QOL in elderly patients after lobectomy was investigated by Burfeind et al. (46). The QOL was compared between the younger population (<70 years) and the older population (≥70 years). They demonstrated significant decreases in QOL at 3 months after surgery, but many of the factors returned to baseline at 6 to 12 months. There was no significant difference between age groups (<70 or ≤70 years). Ferguson et al. and Salati et al. also demonstrated similar recovery patterns after surgery regardless of patient age groups (47,48). Additionally, it was found that QOL recovery after surgery was associated with % predicted forced expiratory volume in the first second. On the other hand, a study from Germany demonstrated that elderly patients (≥70 years) after lobectomy or bi-lobectomy showed a decreased tendency to achieve the preoperative level of QOL compared to younger patients (50). Balduyck et al. prospectively evaluated QOL after lobectomy or pneumonectomy in elderly patients (70–79 years) and found that both resections had a major impact on physical functioning and dyspnea status. Furthermore, lobectomy patients have a better evolution in QOL compared to pneumonectomy patients (49).

To the best of my knowledge, there are no reports of a direct comparison of QOL after treatment in elderly patients between surgery and radiotherapy or between lobectomy and sublobar resection.


Future perspectives

A definitive decision-making process has not been established. In real-world clinical practice, a treatment decision is a complex process that depends on multiple factors, with both objective and subjective judgments made by physicians and surgeons on an individual basis (51). Patients’ major concerns regarding possible outcomes of pulmonary resection are oxygen dependence, restrictions in ambulation, and limitations in activities of daily living (ADL) in their remaining lives, not transient postoperative complications (52). In this context, to make a better decision, a well-designed observational cohort study to identify predictors of poor ADL and QOL after different treatments is needed.

Shared decision-making is a process in which a physician and patient work together to make a decision. The majority of patients had a strong desire to participate in treatment decision-making rather than delegate decisions. Mokhles et al. introduced this system for treatment selection in early-stage NSCLC and demonstrated that patients found it important to be involved in treatment decision-making (53).

Based on the objective data and patients’ preferences, a better decision can be made.


Limitations

Most of the studies introduced in this review article were performed in a retrospective fashion. In addition, the endpoints of the studies were overall survival and/or complication rates. We need to pay careful attention to interpret the studies and compare the results.


Acknowledgements

None.


Footnote

Conflicts of Interest: The author has no conflicts of interest to declare.


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Cite this article as: Okami J. Treatment strategy and decision-making for elderly surgical candidates with early lung cancer. J Thorac Dis 2019;11(Suppl 7):S987-S997. doi: 10.21037/jtd.2019.04.01

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