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Bronchiectasis and sino-nasal disease: a review

Published online by Cambridge University Press:  25 June 2007

C M Philpott*
Affiliation:
Department of Otorhinolaryngology, Essex Rivers Healthcare NHS Trust, Colchester, Cambridge, UK
D C McKiernan
Affiliation:
Department of Otorhinolaryngology, Cambridge University Hospitals NHS Foundation Trust (West Suffolk Hospital and Addenbrookes Hospital), Cambridge, UK
*
Address for correspondence: Mr Carl M Philpott, The Cottage, Debenham Road, Middlewood Green, Stowmarket IP14 5EZ, UK. E-mail: carl.philpott@btinternet.com
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Abstract

The ‘one airway’ model for upper and lower respiratory tract disease is a concept gaining increasing momentum in both respiratory medicine and otorhinolaryngology. The specific common aetiology and pathophysiology of concomitant bronchiectasis and sino-nasal disease, such as chronic rhinosinusitis, are discussed here, as well as the clinical manifestations, along with a review of all the relevant literature in the field.

Type
Review Articles
Copyright
Copyright © JLO (1984) Limited 2007

Introduction

Rhinitis is a common sino-nasal pathology which affects many individuals and causes a significant reduction in workplace productivity.Reference Bousquet, Bullinger, Fayol, Marquis, Valentin and Burtin1 The association between rhinitis and asthma is well known and documented, and the need to treat both conditions is being increasingly recognised. The role of sino-nasal disease in bronchiectasis is, however, less well documented and has relatively little coverage in the literature. This article will discuss the disease processes and the links between the two sites of airway inflammation.

Bronchiectasis

Bronchiectasis is a condition that receives less attention in respiratory texts than conditions such as asthma and chronic obstructive airways disease. This is primarily owing to the fact that bronchiectasis represents a disease process rather than a specific entity and can commonly occur as part of a systemic disorder, as discussed below. It is defined as the abnormal dilation of proximal, medium-sized bronchi (>2 mm diameter) due to lysis of the elastic and muscular components of their walls.Reference Lode2, Reference Murray3 This lysis is mediated by the enzymes collagenase and elastase, released from neutrophils that are chemotactically attracted to the area.Reference Schuster, Ueki and Nadel4, Reference Sepper, Konttinen, Ding, Takagi and Sorsa5 The cytokines that attract the neutrophils include interleukin-8 and leukotriene-B from macrophages and mucosal cells.Reference Mikami, Llewellyn-Jones, Bayley, Hill and Stockley6 Sometimes, this dilation is associated with chronic bacterial infection and the consequent expectoration of large quantities of offensive sputum. The condition may however be ‘dry’, when the upper lobes of the lung are involved, as these have dependant drainage. The pathological process is usually found to be irreversible, but there are a few exceptions, such as after acute pneumonia.Reference Lander7 There may also be overlap with other clinical entities such as chronic bronchitis, especially when the aetiologies are common.Reference Mysliwiec and Pina8

Several classifications for bronchiectasis have been produced, including a morphological one by Reid, published in 1950, which is as follows.Reference Reid9 ‘Cylindrical bronchiectasis’ denotes consistent widening of sections of the bronchi. ‘Varicose bronchiectasis’ denotes local, cylindrical constrictions, causing an irregularity which resembles varicose veins. ‘Saccular or cystic bronchiectasis’ denotes dilation increasing towards the lung periphery, with resulting ballooning of the terminal bronchi.

These classifications are useful radiologically but have little bearing clinically or pathophysiologically. That said, bronchiectasis is essentially a radiological diagnosis, and although clinical signs such as an expectorant cough may give clues, the gold standard investigation is a high resolution computed tomography (CT) scan of the chest.Reference McGuinness and Naidich10Reference Remy-Jardin, Amara, Campistron, Mastora, Delannoy and Duhamel12

Rhinitis and rhinosinusitis

Rhinitis is defined as an inflammatory disorder of the nasal mucosa, characterised by two or more of the following symptoms: rhinorrhoea (anterior and/or posterior), blockage, and itching or sneezing.Reference Scadding and Lund13 Rhinitis is a term that encompasses a variety of aetiologies. Allergic rhinitis has now been reclassified by the Allergic Rhinitis and its Impact on Asthma workshop into mild or moderate/severe and intermittent or persistent. The defining features for this classification are whether symptoms occur more or less than four days a week or four weeks a year, and the presence of sleep disturbance or interruption of normal daily activities.Reference Pawankar14Reference Bousquet, Van Cauwenberge, Bachert, Canonica, Demoly and Durham16 The importance of rhinitis in asthmatic patients is well documented, although the two are often tackled separately by respiratory physicians and otorhinolaryngologists, respectively. Allergic rhinitis is by far the most common form of nasal mucosal inflammation, and, despite being a benign disease with no systemic manifestations, its high prevalence (20 per cent of the adult population) means that it has a significant socio-economic impact due to reduced workplace productivity.Reference Bousquet, Bullinger, Fayol, Marquis, Valentin and Burtin1, Reference Bousquet, Van Cauwenberge and Khaltaev17 It follows that allergic rhinitis can predispose towards infective sino-nasal pathology, and it is not uncommon to find atopy in patients with chronic rhinosinusitis with or without nasal polyposis.Reference Pelikan and Pelikan-Filipek18

Chronic rhinosinusitis has its own diagnostic criteria, as decided in August 1996 by the multidisciplinary rhinosinusitis task force, on behalf of the American Academy of Otolaryngology–Head and Neck Surgery.19 The resulting article, ‘Adult rhinosinusitis defined’, was published in 1997 and endorsed by the American Academy of Otolaryngology–Head and Neck Surgery, the American Academy of Otolaryngic Allergy and the American Rhinologic Society.Reference Lanza and Kennedy20, Reference Lund and Kennedy21 The main defining marker is the presence of symptoms for at least 12 weeks. Along with this, the patient should have at least two major factors present or one major factor and at least two minor factors, or nasal purulence on examination (see Table I).Reference Benninger, Ferguson, Hadley, Hamilos, Jacobs and Kennedy22

Table I Diagnostic factors for chronic rhinosinusitis

*Fever in acute sinusitis alone does not constitute a strongly suggestive history for rhinosinusitis in the absence of another major nasal symptom or sign. Facial pain or pressure alone does not constitute a suggestive history for rhinosinusitis in the absence of another major nasal symptom or sign.

Any rhinitis of an allergic nature involves an immunoglobulin E mediated response to inhaled allergens on the nasal mucosa. The aetiology of rhinosinusitis can be broadly divided into infective and non-infective causes, but it is infection that is most important in bronchiectasis. Staphylococcus aureus, coagulase-negative staphylococcus, and anaerobic and gram-negative bacteria are the predominant organisms in chronic rhinosinusitis, as reflected by the common prescribing habits of otorhinolaryngologists, and beneficial outcomes have been noted in controlled circumstances over short periods.Reference Fairbanks23, Reference Subramanian, Schechtman and Hamilos24 What remains uncertain is the actual pathophysiological role which bacteria play in chronic rhinosinusitis; it may be that they are present by association only. Further research will no doubt be ongoing in this area.

To date, there have been suggestions in the literature of a non-infective – or specifically, a non-bacterial – aetiology evident in chronic rhinosinusitis.Reference Statham and Seiden25 The sinus mucosa inflammatory infiltrate has been shown to be similar in composition to that of asthmatic patients, with typical cells including lymphocytes, mast cells, eosinophils, fibroblasts, plasma cells and goblet cells. The evidence for an immunological mechanism is underlined by the finding of an increased number of TH2 lymphocytes positive for interleukins 5 and 13 and interferon-γ in the sinus mucosa of patients with chronic rhinosinusitis; this is despite less than 40 per cent being atopic.Reference Shin, Ponikau, Sherris, Congdon, Frigas and Homburger26 It may be that bacterial and fungal colonisation provoke this immunological response without direct pathogenesis, but it remains that histological and radiological changes are evident in the presence of both bacteria and fungi.Reference Abraham, Faddis and Chole27, Reference Ponikau, Sherris, Kita and Kern28 The demoralising reality of endoscopic sinus surgery is that a small proportion of patients return to the clinic with purulent discharge, despite their widened middle meati and beautifully opened ethmoid cavities.Reference Benninger, Ferguson, Hadley, Hamilos, Jacobs and Kennedy22

Evidence for interaction between bronchiectasis and sino-nasal disease

Kartagener's syndrome typifies the link between chronic rhinosinusitis and bronchiectasis, with the added component of situs inversus.Reference Pedersen and Mygind29 The underlying problem in this syndrome is absent or possibly severely impaired ciliary motility. This scenario can also occur without situs inversus, and in this circumstance is known as primary ciliary dyskinesia.Reference Eliasson, Mossberg, Camner and Afzelius30, Reference Sleigh31 As the name suggests, it is primarily a dysfunction of cilial motility rather than a loss of their function outright. Primary ciliary dyskinesia is usually a recessive condition, but there can be genetic heterogenicity. Cilial function is vital to the effective clearing of microscopic particulate matter in the respiratory tract.Reference Eley, Yates and Goodship32 The motile cilia of the respiratory tract have a nine plus two arrangement of the microtubules and associated proteins that make up the core of the cilia, known as the axoneme (Figure 1).

Fig. 1 Cilia and flagella structure.

Within the axoneme, the microtubules in the peripheral pairs differ from one another and are known as A and B tubules. The B tubules are incomplete with respect to the A tubules, in that they contain only two rather than 13 parallel protofilaments. The A microtubules also have an inner and outer row of dynein arms. In primary ciliary dyskinesia, the motile cilia are found to contain abnormalities of the dynein arms and the radial spokes. However, they also lack a central pair of doublets, and therefore have an eight plus one configuration. Occasionally, patients may have an abnormal cilial beat frequency in the presence of a normal structural configuration. Disordered orientation of the cilia (when beating) can also occur. Thus far, three genetic defects have been discovered which affect the dynein arms of the axoneme.Reference Olbrich, Haffner, Kispert, Volkel, Volz and Sasmaz33Reference Bartoloni, Blouin, Pan, Gehrig, Maiti and Scamuffa35

Atypical cilia have also been found in normal subjects without respiratory disease, but there is some doubt as to their validity.Reference McDowell, Barrett, Harris and Trump36Reference Kollberg, Mossberg, Afzelius, Philipson and Camner40 However, a study of cilial ultrastructure and function demonstrated that patients with primary ciliary dyskinesia had a significantly greater proportion of cilial abnormalities than did normal subjects.Reference Rossman, Lee, Forrest and Newhouse41 This same study also found that the patient sub-group with allergic rhinitis had a significantly higher ciliary beat frequency than the other, non-primary ciliary dyskinesia sub-groups. Another study assessing cilial orientation found that primary ciliary dyskinesia patients had a high incidence of ciliary disorientation.Reference De Iongh and Rutland42

However, the effect of abnormal cilial structure and function may not account for the entire problem. Abnormal mucus could also have a role to play in the process,Reference Eliezer, Sade, Silberberg and Nevo43 as was concluded by Stanley et al. Reference Stanley, Wilson, Greenstone, Mackay and Cole44 following their study of mucociliary clearance in patients with chronic rhinitis and concomitant chest disease. Mucociliary clearance time was prolonged in patients with both allergic and non-allergic rhinitis. Furthermore, although concomitant asthma did not significantly increase it, 57 per cent of patients with chronic rhinosinusitis and bronchiectasis had mucociliary clearance times greater than 60 minutes.Reference Stanley, Wilson, Greenstone, Mackay and Cole44 Another study of nasal mucociliary clearance in asthmatics and bronchiectatics, using 68 subjects including controls, showed a significantly impaired clearance time in both groups. These authors stated that this was due to a combination of impaired ciliary function and mucus abnormality,Reference Awotedu, Babalola, Lawani and Hart45 and this finding has been echoed by other studies.Reference Stanley, Wilson, Greenstone, Mackay and Cole44, Reference Rutland and Cole46, Reference Varpela, Laitinen, Keskinen and Korhola47

Clinical pattern of disease

Clinically, patients with Kartagener's syndrome or primary ciliary dyskinesia generally report symptoms of rhinorrhoea and/or mucopus discharge from birth.Reference Pedersen and Mygind29 Not surprisingly, more than a third of patients with this syndrome are found to have nasal polyposis, and all patients fail the saccharin clearance test.Reference Eccles, Jones, Phillips and Hilgers48Haemophilus influenzae was the most common organism found in nasal cultures taken from the inferior turbinates in a study of Kartagener's syndrome patients.Reference Pedersen and Mygind29 Otitis media with effusion is also a common manifestation in these patients, and may cause them to present with conductive deafness. Primary ciliary dyskinesia may be missed in children thought to be atopic with rhinitis and asthma, but microbiological analysis of nasal discharge will usually help to clear up any confusion.Reference Williams and Gwaltney49 These patients can also suffer infertility, and cases have been reported in which this occurs in the absence of any respiratory disease.Reference Moryan, Guay, Kurtz and Nowak50

A 1991 Japanese study found that 5 per cent of patients with chronic rhinosinusitis had bronchiectasis. However, conversely, the same study found that 45 per cent of patients with idiopathic bronchiectasis had chronic rhinosinusitis, thus demonstrating that the presence of lower airway disease predisposed towards a much increased risk of upper airway disease.Reference Shirahata51 This same study also reported that 70 patients with chronic rhinosinusitis had a high incidence of fibro-nodular shadowing in the lungs on a chest X-ray, compared with 70 controls. Another study of patients with primary ciliary dyskinesia showed an even greater correlation between bronchiectasis and chronic rhinosinusitis, with 79 per cent of patients demonstrating both pathologies either clinically or radiologically.Reference Mossberg, Camner and Afzelius52

As mentioned above, the mucociliary (saccharin) clearance test is the investigation used to confirm the diagnosis, although sometimes further confirmation will be necessary from electron microscopy of nasal biopsies or bronchial brush biopsies.Reference Biggart, Pritchard, Wilson and Bush53 Traditionally, the diagnostic feature on electron microscopy was dynein deficiency. However, more recently, this has been challenged by the introduction of ciliary function analysis following ciliogenesis, which appears to have a high specificity and sensitivity.Reference Jorissen, Willems, Van and Schueren54 In the UK, the centres which currently have a diagnostic service performing nasal brushing for primary ciliary dyskinesia assessment are the Royal Brompton Hospital, London, the Leicester Royal Infirmary and the Southampton General Hospital. In addition, genetic counselling will often be important, as the condition is predominantly inherited as an autosomal recessive trait. These patients will also often require regular chest physiotherapy in order to ensure drainage of dependent areas of the lungs; parents of affected children are often encouraged to learn the techniques themselves.

Conclusions

The evidence from the literature to date leaves no doubt about the common pathological pathway which leads to disease of the lower and upper respiratory tract due to cilial and mucus abnormalities. However, many of these studies are now 20 years old, and as a better understanding of cilial disease is obtained at a molecular and genetic level, so further studies may well enhance the current knowledge and bring the possibility of improved therapeutic options. There is undeniably a need for clinicians, within both respiratory medicine and otorhinolaryngology as well as in general practice, to consider the ‘combined airway’ modelReference Hens and Hellings55 when treating patients. Thus, the role for combined airways clinics is ever clearer, in the age of the multi-disciplinary team.

References

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Figure 0

Table I Diagnostic factors for chronic rhinosinusitis

Figure 1

Fig. 1 Cilia and flagella structure.