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Am. J. Respir. Crit. Care Med., Volume 156, Number 5, November 1997, 1700-1702

Smoker's Lung Transplanted to a Nonsmoker
Long-term Detection of Smoker's Macrophages

LEILA JOHN MARQUES, HELMUT TESCHLER, JOSUNE GUZMAN, and ULRICH COSTABEL

Department of Pneumology and Allergy, Ruhrlandklinik, Medical Faculty, University of Essen, Essen; General and Experimental Pathology, Ruhr University, Bochum, Germany

    ABSTRACT
TOP
ABSTRACT
INTRODUCTION
DISCUSSION
REFERENCES

Alveolar macrophages (AM) from smokers contain characteristic smoker's inclusion bodies within the cytoplasm as a result of ingestion of substances in the inhaled smoke. How long these smoking-related changes in the AM population can be seen after smoking cessation is largely unknown. We had the unique opportunity to investigate a 51-yr-old never-smoker after single lung transplantation (TX) for alpha 1-antitrypsin deficiency emphysema who received a donor's lung from a heavy cigarette smoker. Serial bronchoalveolar lavage (BAL) was performed in the donor's lung for transplant surveillance at defined time intervals, and the percentage of AM with characteristic smoker's inclusions was counted on slides stained with May-Grünwald-Giemsa stain. The patient had an uneventful course after TX with no major infectious complications or episodes of rejection. One month after TX the percentage of smoker's AM was 98%. BAL after 2, 5, 7, and 12 mo showed a similar high percentage. After 18 mo a first a decrease was seen, down to 78%, and after 2 yr a decrease to 59% was seen. After 3 yr, the smoker's AM had mostly disappeared, only 3% were still present. In conclusion, smoker's inclusions in AM may be detected for at least 2 yr after smoking has ceased, which is considerably longer than the estimated life span of the AM.

    INTRODUCTION
TOP
ABSTRACT
INTRODUCTION
DISCUSSION
REFERENCES

Inhaled particles in cigarette smoke are phagocytosed by alveolar macrophages (AM) and lead to characteristic morphologic changes. AM from cigarette smokers are more numerous, larger in size, frequently multinucleated, and contain characteristic dark basophilic smoker's inclusion bodies within the cytoplasm as a result of ingestion of inhaled smoke particulates (1).

After bone marrow transplantation, host AM disappear in a linear fashion, and their life span is approximately 80 d (6). However, the kinetics of material phagocytosed by AM and the length of time that morphologic changes of AM persist after smoking cessation is largely unknown. A previous cross-sectional study of nonsmokers, smokers, and ex-smokers demonstrated smoking-related inclusions in AM as long as 270 d after smoking had ceased. These investigators calculated that it takes about 3 yr after smoking cessation before the percentage of AM with inclusions approximates the values for nonsmokers (7). Another study showed that the autofluorescence of smoker's AM started to decrease after 6 mo and was still present at 15 mo after smoking cessation (8). Other investigators found, at autopsy, fluorescent material in AM from smokers for as long as 2 yr after smoking had ceased (9).

We investigated a never-smoker after single lung transplantation (TX) for alpha 1-antitrypsin deficiency emphysema who received a donor's lung from a heavy cigarette smoker. The disappearance of AM with characteristic smoker's inclusions was analyzed by studying those cells in nine serial bronchoalveolar lavages (BAL) after TX for as long as 42 mo.

    CASE REPORT

A 51-yr-old male patient with lung emphysema caused by homozygote alpha 1-antitrypsin deficiency was studied. He had never smoked. The patient had an uneventful course after right-sided single lung TX with no major episodes of infection or rejection. Before TX, VC was 1.9 L, FEV1 was 0.5 L, and PaO2 was 72 mm Hg. Six months after TX, VC was 3.8 L, FEV1 was 2.1 L, and PaO2 was 81 mm Hg. He received long-term immunosuppressive therapy with prednisone 10 mg/d, cyclosporine 250 mg/d, and azathioprine 150 mg/d.

BAL was performed in the donor's lung for transplant surveillance at 1, 2, 5, 7, 12, 18, 24, 36, and 42 mo after TX. Informed consent was obtained from the patient. Bronchoalveolar cells were collected by BAL using a subsegment of the middle lobe and instilling 100 or 200 ml sterile saline in 20-ml aliquots. The recovered BAL fluid was pooled and filtered through one layer of gauze, and the cells were separated by centrifugation for 10 min at 4° C. The total cell number was determined in a hemocytometer, and cytocentrifuge preparations were stained with May-Grünwald-Giemsa stain for differential cell counts. Immunocytology using a peroxidase-antiperoxidase method (10) was also performed.

May-Grünwald-Giemsa-stained slides were examined in a random sequence, and 600 AM were counted on each slide. Cells with two or more characteristic smoker's inclusions were considered as smoker's AM and expressed as a percentage of total AM.

The recovery of the instilled fluid was more than 50% in all lavages. There was a gradual decrease in the total number of cells. The CD4/CD8 quotient showed no significant changes and was below 1.0 in all lavages (see Table 1).

                              
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TABLE 1

BASIC BAL PARAMETERS

One month after TX the percentage of smoker's AM was 98%. BAL after 2, 5, 7, and 12 mo showed no change. After 18 mo a first decrease was seen, down to 78%, and after 24 mo it was down to 59%. After 36 and 42 mo, the smoker's AM had almost disappeared; only 3 and 5%, respectively, were still present (Figure 1).


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Figure 1.   The percentage of smoker's alveolar macrophages (AM) in bronchoalveolar lavage fluid 2, 5, 7, 12, 18, 24, 36, and 42 mo after lung transplantation.

    DISCUSSION
TOP
ABSTRACT
INTRODUCTION
DISCUSSION
REFERENCES

This case study has shown that smoker's inclusions in AM can be detected for at least 2 yr after smoking has ceased. After 18 mo a first decrease was seen, down to 78%. After 3 yr, the smoker's AM had mostly disappeared.

Until now there has been no consensus on the criteria for identifying the smoker's AM by light microscopy. We adopted a simple classification based on two or more clear smoker's inclusions. A limitation of this method is that only cells with inclusions large enough to be seen by light microscopy are accurately counted. Also the number of particulates per AM cannot be assessed precisely. The percentage of AM containing smoker's inclusions remained relatively constant during the first 12 mo after transplantation. It is possible that the number of particles per AM decreased during this time, and that this was not detected by the method we used.

Good evidence indicates that the bone marrow is the source of tissue macrophages, including lung macrophages. Studies in animals and in humans have shown that the majority of AM are derived from peripheral blood monocytes (11- 13). The in vivo kinetics of human AM under normal steady-state conditions is not known. Thomas and coworkers (6) demonstrated that after bone marrow transplantation the AM have a life span of approximately 80 d. Although some studies have suggested that AM cannot replicate within the lungs (6, 11), several others have shown that human AM are capable of replication (14, 15). A small proportion (0.5% of AM from normal humans) incorporate thymidine, suggesting DNA synthesis. This percentage was shown to increase more than 10 times in smokers and in inflammatory states (16). Thus, to some extent the macrophage compartment in the human lung can be sustained by local cell proliferation. Along these lines, at least a proportion of the smoker's AM observed for as long as 2 yr after transplantation may be derived from AM that have divided in the lung and kept their smoker's inclusions. On the other hand, the persistence of smoking-induced changes in AM may also be explained by the fact that particles are released from old AM and rephagocytosed by young macrophages newly arrived from the recipient's bone marrow.

In conclusion, our findings have shown that smoker's inclusions in AM may persist for at least 2 yr after smoking cessation. This suggests that the time between cessation of smoking and the change of AM to a similar morphology to that of the nonsmoker is longer than the estimated life span of the these cells (6, 13). This again may indicate that the phagocytosed smoke particulates are recycled within the AM population for a considerable amount of time.

    Footnotes

Partially supported by the Arbeitsgemeinschaft zur Förderung der Pneumologie an der Ruhrlandklinik.

Corespondence and requests for reprints should be addressed to Dr. Ulrich Costabel, Ruhrlandklinik, Tüschener Weg 40, D-45239 Essen, Germany.

(Received in original form November 14, 1996 and in revised form May 21, 1997).

    References
TOP
ABSTRACT
INTRODUCTION
DISCUSSION
REFERENCES

1. Brody, A. R., and J. E. Craighead. 1975. Cytoplasmic inclusions in pulmonary macrophages of cigarette smokers. Lab. Invest. 32: 125-132 [Medline].

2. Costabel, U., and J. Guzman. 1992. Effect of smoking on bronchoalveolar lavage constituents. Eur. Respir. J. 5: 776-779 [Medline].

3. Martin, R. R.. 1973. Altered morphology and increased acid hydrolase content of pulmonary macrophages from cigarette smokers. Am. Rev. Respir. Dis. 107: 596-601 [Medline].

4. Pratt, S. A., T. N. Finley, M. H. Smith, and A. J. Ladman. 1969. A comparison of alveolar macrophages and pulmonary surfactant obtained from the lungs of human smokers and nonsmokers by endobronchial lavage. Anat. Rec. 163: 497-598 [Medline].

5. Sibille, Y., and H. Y. Reynolds. 1990. Macrophages and poplymorphonuclear neutrophils in lung defense and injury. Am. Rev. Respir. Dis. 141: 471-501 [Medline].

6. Thomas, E. D., R. E. Ramberg, G. E. Sale, R. S. Sparkes, and D. W. Golde. 1976. Direct evidence for a bone marrow origin of the alveolar macrophage in man. Science 192: 1016-1017 [Abstract/Free Full Text].

7. Agius, R. M., A. Rutman, R. K. Knight, and P. J. Cole. 1986. Human pulmonary alveolar macrophages with smokers' inclusions: their relation to the cessation of cigarette smoking. Br. J. Exp. Pathol. 67: 407-413 [Medline].

8. Sköld, C. M., J. Held, and A. Eklund. 1992. Smoking cessation rapidly reduces cell recovery in bronchoalveolar lavage fluid, while alveolar macrophages fluorescence remains high. Chest 101: 989-995 [Abstract/Free Full Text].

9. Reiter, C.. 1986. Fluorescence test to identify deep smokers. Forensic Sci. Int. 31: 21-26 [Medline].

10. Costabel, U., K. J. Bross, K. H. Rühle, G.W. Löhr, and H. Matthys. 1985. Ia-like antigens on T-cells and their subpopulations in pulmonary sarcoidosis and hypersensitivity pneumonitis. Am. Rev. Respir. Dis. 131: 337-342 [Medline].

11. Godleski, J., and J. D. Brain. 1972. The origin of alveolar macrophages in mouse radiation chimeras. J. Exp. Med. 136: 630-643 [Abstract].

12. Blusse van Oud Ablas A., and R. van Furth. 1979. Origin, kinetics and characteristics of pulmonary macrophages in the normal steady state. J. Exp. Med. 149: 1504-1518 [Abstract/Free Full Text].

13. Winston, D. J., M. C. Territo, W. G. Ho, M. J. Miller, R. P. Gale, and D. W. Golde. 1982. Alveolar macrophage dysfunction in human bone marrow transplant recipients. Am. J. Med. 73: 859-866 [Medline].

14. Golde, D. W., L. A. Byers, and T. N. Finley. 1974. Proliferative capacity of human alveolar macrophage. Nature 247: 373-375 [Medline].

15. Evans, M. J., M. P. Scherman, L. A. Campbell, and S. G. Shami. 1987. Proliferation of pulmonary alveolar macrophages during postnatal development of rabbit lungs. Am. Rev. Respir. Dis. 136: 384-387 [Medline].

16. Bitterman, P. B., L. E. Salzman, S. Adelberg, V. J. Ferrans, and R. G. Crystal. 1984. Alveolar macrophage replication: one mechanism for the expansion of the mononuclear phagocyte population in the chronically inflamed lung. J. Clin. Invest. 74: 460-469 .





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Copyright © 1997 American Thoracic Society