Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Fluoroscopically guided wide‐bore thoracostomy tube placement: Description of the technique and comparison to blind placement

View through CrossRef
AbstractObjectiveTo describe and compare fluoroscopic guidance for placement of wide‐bore thoracostomy tubes (FGTT) to traditional, blind placement of thoracostomy tubes (BPTT).Study designProspective clinical trial.AnimalsTwenty client‐owned dogs.MethodsDogs requiring medical management of pleural effusion received a BPTT, whereas dogs undergoing postoperative management of pneumothorax and/or pleural fluid after lateral thoracotomy received an FGTT. Time of placement, accuracy of positioning, radiation exposure, and complications were compared between groups.ResultsInitial placement of BPTT took a mean of 168 seconds (range, 89‐197), whereas adequate placement was radiographically confirmed at 20 minutes and 38 seconds (range, 7 minutes and 57 seconds to 39 min). Initial placement of FGTT took a mean time of 108 seconds (range, 50‐341, P = .17), and adequate placement was confirmed at 125 seconds (range, 50‐341, P < .001). Major errors in placement requiring removal and replacement occurred in 2 dogs for BPTT and in none for FGTT. Procedural complications did not differ between groups, and no postoperative complication occurred within the first 12 hours after placement. Radiation entrance surface dose was lower in the BPTT group (P = .004), but stochastic radiation doses did not differ.ConclusionFluoroscopic guidance of wide‐bore thoracostomy tubes accelerated the time to accurate tube placement and alleviated the requirement for removal and replacement in this population. Although use of fluoroscopy increased radiation entrance surface dose, the dose was not clinically significant.Clinical significanceFluoroscopic guidance of wide‐bore thoracostomy tubes should be considered as an alternative to traditional, blind placement.
Title: Fluoroscopically guided wide‐bore thoracostomy tube placement: Description of the technique and comparison to blind placement
Description:
AbstractObjectiveTo describe and compare fluoroscopic guidance for placement of wide‐bore thoracostomy tubes (FGTT) to traditional, blind placement of thoracostomy tubes (BPTT).
Study designProspective clinical trial.
AnimalsTwenty client‐owned dogs.
MethodsDogs requiring medical management of pleural effusion received a BPTT, whereas dogs undergoing postoperative management of pneumothorax and/or pleural fluid after lateral thoracotomy received an FGTT.
Time of placement, accuracy of positioning, radiation exposure, and complications were compared between groups.
ResultsInitial placement of BPTT took a mean of 168 seconds (range, 89‐197), whereas adequate placement was radiographically confirmed at 20 minutes and 38 seconds (range, 7 minutes and 57 seconds to 39 min).
Initial placement of FGTT took a mean time of 108 seconds (range, 50‐341, P = .
17), and adequate placement was confirmed at 125 seconds (range, 50‐341, P < .
001).
Major errors in placement requiring removal and replacement occurred in 2 dogs for BPTT and in none for FGTT.
Procedural complications did not differ between groups, and no postoperative complication occurred within the first 12 hours after placement.
Radiation entrance surface dose was lower in the BPTT group (P = .
004), but stochastic radiation doses did not differ.
ConclusionFluoroscopic guidance of wide‐bore thoracostomy tubes accelerated the time to accurate tube placement and alleviated the requirement for removal and replacement in this population.
Although use of fluoroscopy increased radiation entrance surface dose, the dose was not clinically significant.
Clinical significanceFluoroscopic guidance of wide‐bore thoracostomy tubes should be considered as an alternative to traditional, blind placement.

Related Results

Blunt Chest Trauma and Chylothorax: A Systematic Review
Blunt Chest Trauma and Chylothorax: A Systematic Review
Abstract Introduction: Although traumatic chylothorax is predominantly associated with penetrating injuries, instances following blunt trauma, as a rare and challenging condition, ...
A Comparative Study Between-Small Bore and Large Bore Tubes for Therapeutic Pleural Drainage
A Comparative Study Between-Small Bore and Large Bore Tubes for Therapeutic Pleural Drainage
Introduction: Pleural effusions due to various pulmonary and extra pulmonary causes are common clinical problems. Some pleural diseases require therapeutic pleurocentesis to decomp...
Frequency of Empyema After Tube Thoracostomy in Patients with Penetrating Chest Trauma
Frequency of Empyema After Tube Thoracostomy in Patients with Penetrating Chest Trauma
Objective: The objective of this study was to determine the frequency of empyema after tube thoracostomy in patients presenting with penetrating chest trauma. Study Design: Descri...
Evaluation of the role of video - assisted thoracoscopic surgery in management of empyema
Evaluation of the role of video - assisted thoracoscopic surgery in management of empyema
Abstract Background Video-assisted thoracoscopic surgery (VATS) is effective for fibropurulent thoracic empyema and less invasive, and it may be imp...
Environmental Surveillance Protocols for Highly Pathogenic Avian Influenza (HPAI) v2
Environmental Surveillance Protocols for Highly Pathogenic Avian Influenza (HPAI) v2
EnvironmentalSurveillance Protocols for Highly Pathogenic Avian Influenza (HPAI) This comprehensive protocol suite enables systematic environmental surveillance for avian influenza...
A Comparison of Prehospital Nonphysician and Hospital Physician Placed Tube Thoracostomy
A Comparison of Prehospital Nonphysician and Hospital Physician Placed Tube Thoracostomy
Background Prehospital chest decompression can be a lifesaving procedure in severe chest trauma. Studies investigating prehospital chest decompression are mostl...
Lectin C gene analysis v1
Lectin C gene analysis v1
Mammalian Tissue Total RNA Purification Protocol by GeneJET RNA Purification Kit (Thermo Scientific, USA) Before starting: • Supplement the required amount of Lysis Buffer with β-...

Back to Top