Narrative discourse following severe traumatic brain injury: a longitudinal follow-up

Aphasiology ◽  
1999 ◽  
Vol 13 (7) ◽  
pp. 529-551 ◽  
Author(s):  
PAMELA C. SNOW ◽  
JACINTA M. DOUGLAS ◽  
JENNIE L. PONSFORDOE
2020 ◽  
pp. 1-4

Abstract This case report demonstrated that electro-acupuncture treatment has improved the outcome of an adolescent with severe traumatic brain injury due to a traffic accident. The patient had a bilateral frontal hematoma, subdural hematoma, subarachnoid hemorrhage, stem hematoma and diffuse parenchymal swelling with the initial Glasgow Coma Scale score of E1V1M1. Daily electro-acupuncture therapy was prescribed with strong stimulation at GV 26 (Shuigou), PC6 (Neiguan) and EX-UE11(Shixuan) when the vital signs of the patient became stable. The patient had a full recovery of the consciousness in 30 days. The follow-up observation found that he has also restored the motor and speech functions. This result suggested a potential role of electro-acupuncture in the treatment of consciousness disturbance for patient with traumatic brain injury.


2020 ◽  
Author(s):  
Xiangyi Yin ◽  
Jie Wu ◽  
Lihui Zhou ◽  
Chunyan Ni ◽  
Minyan Xiao ◽  
...  

Abstract Background: Tracheostomy is very common in patients with severe traumatic brain injury (TBI), and long-term nursing care are needed for those patients. We aimed to evaluate the effects of hospital-community-home (HCH) nursing in those patients. Methods: Tracheostomy patients with severe TBI needing long-term care were included. All patients underwent two months long follow-up. Glasgow coma score (GCS), Karnofsky, Self-Anxiety Scale (SAS) (SAS) and Barthel assessment at the discharge and two months after discharge were evaluated. The tracheostomy related complications were recorded and compared.Results: A total of 60 patients were included. There weren’t significant differences between two groups in the GCS, Karnofsky, SAS and Barthel index at discharge((all p>0.05), the GCS, Karnofsky and Barthel index was all significantly increased after two months follow-up for two groups (all p<0.05), and the GCS, Karnofsky and Barthel index at two months follow-up in HCH group was significantly higher than that of control group(all p<0.05), but the SAS at two months follow-up in HCH group was significantly less than that of control group(p=0.009). The incidence of block of artificial tracheal cannula and readmission in HCH group were significant less than that of control group (all p<0.05).Conclusion: HCH nursing care is feasible in tracheostomy patients with severe TBI, future studies are needed to further evaluate the role of HCH nursing care.


1996 ◽  
Vol 12 (8) ◽  
pp. 460-465 ◽  
Author(s):  
Ingrid Emanuelson ◽  
Lennart von Wendt ◽  
Eva Lundälv ◽  
Jerry Larsson

Brain Injury ◽  
2019 ◽  
Vol 34 (1) ◽  
pp. 98-109
Author(s):  
Emma Power ◽  
Stephanie Weir ◽  
Jessica Richardson ◽  
Davida Fromm ◽  
Margaret Forbes ◽  
...  

2013 ◽  
Vol 119 (6) ◽  
pp. 1566-1575 ◽  
Author(s):  
Stephen Honeybul ◽  
Courtney Janzen ◽  
Kate Kruger ◽  
Kwok M. Ho

Object The object of this study was to assess the long-term outcome and quality of life of patients who have survived with severe disability following decompressive craniectomy for severe traumatic brain injury (TBI). Methods The authors assessed outcome beyond 3 years among a cohort of 39 patients who had been adjudged either severely disabled or in vegetative state 18 months after decompressive craniectomy for TBI. Assessments performed included the Extended Glasgow Outcome Scale, modified Barthel Index (mBI), Zarit Burden Interview, and 36-Item Short-Form Health Survey (SF-36). The issue of retrospective consent for surgery was also assessed. Results Of the 39 eligible patients, 7 died, 12 were lost to follow-up, and 20 patients or their next of kin consented to participate in the study. Among those 20 patients, 5 in a vegetative state at 18 months remained so beyond 3 years, and the other 15 patients remained severely disabled after a median follow-up of 5 years. The patients' average daily activity per the mBI (Pearson correlation coefficient [r] = −0.661, p = 0.01) and SF-36 physical score (r = −0.543, p = 0.037) were inversely correlated with the severity of TBI. However, the SF-36 mental scores of the patients were reasonably high (median 46, interquartile range 37–52). The majority of patients and their next of kin believed that they would have provided consent for surgical decompression even if they had known the eventual outcome. Conclusions Substantial physical recovery beyond 18 months after decompressive craniectomy for severe TBI was not observed; however, many patients appeared to have recalibrated their expectations regarding what they believed to be an acceptable quality of life.


2009 ◽  
Vol 3 (4) ◽  
pp. 334-339 ◽  
Author(s):  
Matthew A. Adamo ◽  
Doniel Drazin ◽  
John B. Waldman

Object Infants with severe traumatic brain injury represent a therapeutic challenge. The internal absence of open space within the infant cranial vault makes volume increases poorly tolerated. This report presents 7 cases of decompressive craniectomy in infants with cerebral edema. Methods The authors reviewed the medical charts of infants with brain injuries who presented to Albany Medical Center Hospital between January 2004 and July 2007. Variables that were examined included patient age, physical examination results at admission, positive imaging findings, surgery performed, complications, requirement of permanent CSF diversion, and physical examination results at discharge and outpatient follow-up using the King's Outcome Scale for Childhood Head Injury. Seven infants met the inclusion criteria for the study. Six infants experienced nonaccidental trauma, and 1 had a large infarction of the middle cerebral artery territory secondary to a carotid dissection. At admission, all patients were minimally responsive, 4 had equal and minimally reactive pupils, 3 had anisocoria with the enlarged pupil on the same side as the brain lesion, and all had right-sided hemiparesis. Six patients received a left hemicraniectomy, whereas 1 received a left frontal craniectomy. In all cases, bone was cultured and stored at the bone bank. Results Postoperatively, 3 patients who developed draining CSF fistulas needed insertions of external ventricular drains, with incisions oversewn using nylon sutures and a liquid bonding agent. After prolonged CSF drainage and wound care, these patients all developed epidural and subdural empyemas necessitating surgical drainage and debridement. Methicillin-resistant Staphylococcus aureus was found in 2 patients and Enterococcus in the third. All patients developed hydrocephalus necessitating the insertion of a ventriculoperitoneal shunt, and all had bone replaced within 1–6 months from the time of the original operation. Two patients required reoperation due to bone resorption. At outpatient follow-up visits, all had scores of 3 or 4 on the King's Outcome Scale for Childhood Head Injury. Each patient was awake, interactive, and could sit, as well as either crawl or walk with assistance. All had persistent, improving right-sided hemiparesis and spasticity. Conclusions Despite poor initial examination results, infants with severe traumatic brain injury can safely undergo decompressive craniectomy with reasonable neurological recovery. Postoperative complications must be anticipated and treated appropriately. Due to the high rate of CSF fistulas encountered in this study, it appears reasonable to recommend both the suturing in of a dural augmentation graft and the placement of either a subdural drain or a ventriculostomy catheter to relieve pressure on the healing surgical incision. Also, one might want to consider using a T-shaped incision as opposed to the traditional reverse question mark-shaped incision because wound healing may be compromised due to the potential interruption of the circulation to the posterior and inferior limb with this latter incision.


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