3.Occurrence of bilateral pneumothorax during tracheostomy in a patient with deep neck infection.
Sang Hoon KANG ; Yu Jin WON ; Jung Hyun CHANG
Journal of Dental Anesthesia and Pain Medicine 2016;16(2):141-145
Infection that progresses to deep areas of the neck requires appropriate assessment of the airway, and securing of the airway is critical in patients with deep neck infection. In the patient in our case report, bilateral pneumothorax occurred while performing tracheostomy to the airways of a patient with deep neck infection, and therefore, this paper details the method used to secure the airway of patients with deep neck infection.
Humans
;
Methods
;
Neck*
;
Pneumothorax*
;
Tracheostomy*
4.Occurrence of bilateral pneumothorax during tracheostomy in a patient with deep neck infection.
Sang Hoon KANG ; Yu Jin WON ; Jung Hyun CHANG
Journal of Dental Anesthesia and Pain Medicine 2016;16(2):141-145
Infection that progresses to deep areas of the neck requires appropriate assessment of the airway, and securing of the airway is critical in patients with deep neck infection. In the patient in our case report, bilateral pneumothorax occurred while performing tracheostomy to the airways of a patient with deep neck infection, and therefore, this paper details the method used to secure the airway of patients with deep neck infection.
Humans
;
Methods
;
Neck*
;
Pneumothorax*
;
Tracheostomy*
6.Tracheostomy.
Journal of Clinical Otorhinolaryngology Head and Neck Surgery 2015;29(17):1581-1586
Tracheostomy is to establish an artificial airway by making an opening at anterior tracheal wall. Due to the blossom of mechanical ventilation and intensive care unit after 1950s, tracheostomy is the most favorable surgical method to access airway at present. In addition to traditional surgical tracheostomy, percutaneous dilational tracheostomy have gained increasing popularity and become an alternative procedure because of its merits such as easier manipulation, shorter operative duration and less complications. This review summarized tracheostomy from definition, history and current status, anatomy and physiology, indications, contraindications, timing, complications and management. We also elaborate our understanding of current contraercy and give some suggestions based on our clinical experience.
Humans
;
Intensive Care Units
;
Respiration, Artificial
;
Trachea
;
surgery
;
Tracheostomy
;
methods
7.Usefulness of Permanent Tracheostoma in Chronic Brain Injured Patients: A Case Series.
Yu Hui WON ; Seo Young JEON ; Han Su KIM ; Hasuk BAE
Yonsei Medical Journal 2014;55(6):1743-1746
Patients with severe neurological deficit, such as hypoxic ischemic injury, cerebral infarction, and traumatic brain injury, often show comatose mental status and require maintenance of long-term tracheostomy for pulmonary toileting. However, several complications, which are mostly related to the cannula, invariably occur. Permanent tracheostoma is a short, skin-lined, noncollapsing, self-sustaining opening by suturing the denuded skin lining to the margin of the tracheal stoma. This tube-free method is a useful alternative to make long-term airway without tube-related complications in chronic diseases, such as obstructive sleep apnea, and laryngeal cancer, however, it has not yet been reported in chronic brain injured patients. This case report illustrates 3 cases of vegetative patients in our rehabilitation clinic who underwent successful procedure of permanent tracheostoma. Permanent tracheostoma has some benefits associated with the free of tube-related complications, and can be considered as a useful alternative way for chronic brain injured patients with long-term tracheostomy.
Brain Injuries/complications/*rehabilitation
;
Humans
;
Male
;
Middle Aged
;
Trachea/*surgery
;
Tracheostomy/*methods
;
Treatment Outcome
8.Suspension laryngoscopic surgery for laryngotracheal stenosis of 32 cases.
Chunyan WANG ; Yong QIN ; Shuifang XIAO
Chinese Journal of Otorhinolaryngology Head and Neck Surgery 2014;49(8):675-679
OBJECTIVETo investigate the efficacy of suspension laryngoscopic surgery for benign laryngotracheal stenosis (LTS).
METHODSThirty-two patients (aged from 5 to 70 years with a median of 36 years) with benign LTS were studied retrospectively who were treated by suspension laryngoscopic surgery with or without assistance of CO₂ Laser for LTS. Stents were placed in 17 cases. Among 32 patients, 13 cases were with LST in Cotton I, 8 cases in Cotton II, and 11 cases in Cotton III; 23 were with single level narrow, and 9 cases with multi-level narrow; the average narrow length was 1.3 cm and the average diameter at maximum stenosis was 0.5 cm; and 19 cases underwent tracheostomy before surgery.
RESULTSFollow-up period ranged from 1 to 18 years with median time of 10 years. Twenty-six patients (81.2%) were successfully decannulated with good airway patency and effective phonation. Six cases failed and 1 case of them was changed to open surgery. Among 17 cases with stent placement, 4 cases were applied additionally with T tube (effective rate of 50.0%), 1 case with laryngeal keel, 12 cases with stents alone (effective rate of 66.7%). Stent-related complications occurred in 2 cases. Patients with cotton I-II had a successful rate of 100% (21/21), while patients with Cotton III showed poor effectiveness (5/11), with a statistical significant difference between two groups (χ² = 14.098, P = 0.001). The patients with single level LTS were successfully treated by suspension laryngoscopic surgery with 100% successful rate (23/23), while the patients with multi-level LTS showed poor effectiveness (3/9), with a statistical significant difference between two groups (χ² = 18.872, P = 0.000) .
CONCLUSIONSSuspension laryngoscopic microsurgery can treat single level LTS with good results and also can be used as a pre-surgery in treatment of multi-level LTS with the virtue of minimal trauma and short recovery time. Application of stents can be helpful for suspension laryngoscope surgery for LST.
Constriction, Pathologic ; Humans ; Laryngoscopy ; methods ; Lasers, Gas ; Microsurgery ; Retrospective Studies ; Stents ; Tracheal Stenosis ; surgery ; Tracheostomy
9.Comparison of Glucose Concentration of Tracheal Secretions by Measuring Times and Feeding Methods in Enterally Fed Patients.
Journal of Korean Academy of Adult Nursing 2006;18(5):718-726
PURPOSE: The purpose of this study was to investigate differences between a pulmonary aspiration group and a non-pulmonary aspiration group in glucose concentration of tracheal secretions by measuring time and feeding methods. METHOD: The subjects were 36 ICU patients who were receiving formula via nasogastric tubes and had endotracheal tubes or tracheostomy tubes. Tracheal secretions were collected by connecting suction traps to a suction catheter in three different times(within 1 hour after feeding, between 1 to 2 hours after feeding, and between 2 to 3 hours after feeding) for 2 days, overall six times. Glucose concentration of tracheal secretions was measured with the glucometer(Accucheck II). RESULTS: Glucose concentration of tracheal secretions increased in progression after feeding. The mean of specimens collected last(between two to three hours after feeding) was shown to be the highest value(M= 61.61 mg/dl) in the pulmonary aspiration group. Significantly(p=.000) more subjects(94.44%) in the pulmonary aspiration group received formula via a 50cc syringe than those in the non-pulmonary aspiration group(22.22%). CONCLUSION: Critically ill patients may need more time for head-elevation after tube feeding to prevent pulmonary aspiration. In practice, enteral formula should not be given the patients via a 50cc syringe anymore, instead a feeding bag or infusion pump should be used to prevent pulmonary aspiration.
Catheters
;
Critical Illness
;
Enteral Nutrition
;
Feeding Methods*
;
Glucose*
;
Humans
;
Infusion Pumps
;
Suction
;
Syringes
;
Tracheostomy
;
Surveys and Questionnaires
10.Comparison of Glucose Concentration of Tracheal Secretions by Measuring Times and Feeding Methods in Enterally Fed Patients.
Journal of Korean Academy of Adult Nursing 2006;18(5):718-726
PURPOSE: The purpose of this study was to investigate differences between a pulmonary aspiration group and a non-pulmonary aspiration group in glucose concentration of tracheal secretions by measuring time and feeding methods. METHOD: The subjects were 36 ICU patients who were receiving formula via nasogastric tubes and had endotracheal tubes or tracheostomy tubes. Tracheal secretions were collected by connecting suction traps to a suction catheter in three different times(within 1 hour after feeding, between 1 to 2 hours after feeding, and between 2 to 3 hours after feeding) for 2 days, overall six times. Glucose concentration of tracheal secretions was measured with the glucometer(Accucheck II). RESULTS: Glucose concentration of tracheal secretions increased in progression after feeding. The mean of specimens collected last(between two to three hours after feeding) was shown to be the highest value(M= 61.61 mg/dl) in the pulmonary aspiration group. Significantly(p=.000) more subjects(94.44%) in the pulmonary aspiration group received formula via a 50cc syringe than those in the non-pulmonary aspiration group(22.22%). CONCLUSION: Critically ill patients may need more time for head-elevation after tube feeding to prevent pulmonary aspiration. In practice, enteral formula should not be given the patients via a 50cc syringe anymore, instead a feeding bag or infusion pump should be used to prevent pulmonary aspiration.
Catheters
;
Critical Illness
;
Enteral Nutrition
;
Feeding Methods*
;
Glucose*
;
Humans
;
Infusion Pumps
;
Suction
;
Syringes
;
Tracheostomy
;
Surveys and Questionnaires