| Literature DB >> 28182115 |
Dolores Escudero1, Jesus Otero2, Begoña Menéndez de León3, Marcos Perez-Basterrechea2.
Abstract
Organ transplantation is the sole treatment to improve or save the life of patients with final-stage organ failure. The shortage of available organs for transplantation constitutes a universal problem, estimating that 10% of patients on waiting lists die. Brain death is an undesirable result; nevertheless, it has beneficial side-effects since it is the most frequent source of organs for transplantation. However, this phenomenon is relatively uncommon and has a limited potential. One of the options that focuses on increasing organ donation is to admit patients with catastrophic brain injuries (with a high probability of brain death and nontreatable) to the Intensive Care Unit, with the only purpose of donation. To perform elective nontherapeutic ventilation (ENTV), a patient's anticipated willingness to donate organs and/or explicit acceptance by his/her relatives is required. This process should focus exclusively on those patients with catastrophic brain injuries and imminent risk of death which, due to its acute damage, are not considered treatable. This article defends ENTV as an effective strategy to improve donation rate, analyzing its ethical and legal basis.Entities:
Mesh:
Year: 2017 PMID: 28182115 PMCID: PMC5274675 DOI: 10.1155/2017/7518375
Source DB: PubMed Journal: Biomed Res Int Impact factor: 3.411
Figure 1Clinical decision making. ENTV (elective nontherapeutic ventilation), RAW (registry of anticipated willingness), WLST (withdrawal of life-sustaining treatments), BD (brain death), and ICU (Intensive Care Unit).
Poor prognostic factors in patients with brain trauma.
| Cranioencephalic trauma |
|
|
| High age |
| Low GCSa |
| Pupillary changes/anisocoria/nonreactive bilateral mydriasis |
| Alteration or absence of ocular movement |
| Injuries according to the Marshall CT classification (IV and VI)b |
| Type and gravity of injury according to CT. Presence of traumatic SAHc |
| Intracranial hypertension |
| Hypoxia/hypotension and presence of secondary injury |
| Necessity of intubation |
| Coagulopathy/previous anticoagulant treatment/necessity of blood transfusion |
| Associated spinal cord injury |
|
|
| SAH |
|
|
| Age |
| Neurologic function |
| High score in Hunt and Hess scale |
| High score in WFNS scaled |
| Fisher scale. Blood volume and location |
| High score in Ogilvy and Carter scale |
| Size and localization of aneurism/hemorrhage recurrence |
| Hyperglycemia |
|
|
| Ischemic and hemorrhagic brain stroke |
|
|
| High score in NIHSS and iScoree |
| High ICH scoref |
| Low GCS |
| Volume of hematoma that varies depending on location: |
| (i) Basal ganglia hemorrhage ≥ 60 cc, mortality 100% |
| (ii) Lobar hemorrhage ≥ 60 cc, mortality 71% |
| (iii) Posterior fossa lethal hemorrhage: |
| Cerebellar location > 30 cc |
| Pontine location 5 cc |
| Diabetes/hyperglycemia on admission |
| Previous antiaggregation/anticoagulation |
| Auricular fibrillation |
aGCS: Glasgow Coma Scale.
bCT: computed tomography.
cSAH: subarachnoid hemorrhage.
dWFNS: World Federation of Neurological Surgeons.
eNIHSS: National Institute of Health Stroke Scale.
fICH: intracerebral hemorrhage.