Tracheobronchial stents: an expanding prospect
The first dedicated tracheobronchial silicone stent was designed by the French pulmonologist Jean‐Paul Dumon. The most common indications for stenting are to minimise extrinsic airway compression from mass effect, maintain airway patency due to intrinsic obstruction or treat significant nonmalignant...
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Veröffentlicht in: | Internal medicine journal 2024-02, Vol.54 (2), p.204-213 |
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description | The first dedicated tracheobronchial silicone stent was designed by the French pulmonologist Jean‐Paul Dumon. The most common indications for stenting are to minimise extrinsic airway compression from mass effect, maintain airway patency due to intrinsic obstruction or treat significant nonmalignant airway narrowing or fistulae. Silicone stents require rigid bronchoscopy for insertion; however, they are more readily repositioned and removed compared with metallic stents. Metallic stents demonstrate luminal narrowing when loads are applied to their ends, therefore stents should either be reinforced at the ends or exceed the area of stenosis by a minimum of 5 mm. Nitinol, a nickel‐titanium metal alloy, is currently the preferred material used for airway stents. Airway stenting provides effective palliation for patients with severe symptomatic obstruction. Drug‐eluting and three‐dimensional printing of airway stents present promising solutions to the challenges of the physical and anatomical constraints of the tracheobronchial tree. Biodegradable stents could also be a solution for the treatment of nonmalignant airway obstruction. |
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The most common indications for stenting are to minimise extrinsic airway compression from mass effect, maintain airway patency due to intrinsic obstruction or treat significant nonmalignant airway narrowing or fistulae. Silicone stents require rigid bronchoscopy for insertion; however, they are more readily repositioned and removed compared with metallic stents. Metallic stents demonstrate luminal narrowing when loads are applied to their ends, therefore stents should either be reinforced at the ends or exceed the area of stenosis by a minimum of 5 mm. Nitinol, a nickel‐titanium metal alloy, is currently the preferred material used for airway stents. Airway stenting provides effective palliation for patients with severe symptomatic obstruction. Drug‐eluting and three‐dimensional printing of airway stents present promising solutions to the challenges of the physical and anatomical constraints of the tracheobronchial tree. Biodegradable stents could also be a solution for the treatment of nonmalignant airway obstruction.</description><identifier>ISSN: 1444-0903</identifier><identifier>EISSN: 1445-5994</identifier><identifier>DOI: 10.1111/imj.16304</identifier><identifier>PMID: 38140778</identifier><language>eng</language><publisher>Melbourne: John Wiley & Sons Australia, Ltd</publisher><subject>Airway management ; airway stents ; Bronchoscopy ; Fistulae ; Implants ; interventional bronchoscopy ; metallic stents ; Palliation ; Respiratory tract ; silicone stents ; Silicones ; Stenosis ; Stents ; tracheobronchial stents</subject><ispartof>Internal medicine journal, 2024-02, Vol.54 (2), p.204-213</ispartof><rights>2023 The Authors. published by John Wiley & Sons Australia, Ltd on behalf of Royal Australasian College of Physicians.</rights><rights>2023 The Authors. 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The most common indications for stenting are to minimise extrinsic airway compression from mass effect, maintain airway patency due to intrinsic obstruction or treat significant nonmalignant airway narrowing or fistulae. Silicone stents require rigid bronchoscopy for insertion; however, they are more readily repositioned and removed compared with metallic stents. Metallic stents demonstrate luminal narrowing when loads are applied to their ends, therefore stents should either be reinforced at the ends or exceed the area of stenosis by a minimum of 5 mm. Nitinol, a nickel‐titanium metal alloy, is currently the preferred material used for airway stents. Airway stenting provides effective palliation for patients with severe symptomatic obstruction. Drug‐eluting and three‐dimensional printing of airway stents present promising solutions to the challenges of the physical and anatomical constraints of the tracheobronchial tree. 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subjects | Airway management airway stents Bronchoscopy Fistulae Implants interventional bronchoscopy metallic stents Palliation Respiratory tract silicone stents Silicones Stenosis Stents tracheobronchial stents |
title | Tracheobronchial stents: an expanding prospect |
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