Trauma Resuscitation

2015 ◽  
Author(s):  
Joaquim M. Havens ◽  
Ali S. Raja

Although patients with recently sustained traumatic injuries may present at any health care setting, this review focuses on resuscitation, stabilization, and management of the trauma patient in the emergency department. Patients with potentially severe traumatic injury often present to local, community hospitals and may require transfer to a trauma center after evaluation. Nevertheless, as long as it does not delay transfer unnecessarily, the initial evaluation can be undertaken in any setting. This review discusses assessment and stabilization, including triage and preparation, trauma team management, bedside evaluation, and supportive care and empirical therapy; diagnosis, including secondary evaluation and management, laboratory testing, and additional imaging following the secondary evaluation; treatment and disposition; and outcomes. Tables describe advanced trauma life support primary evaluation, the Glasgow Coma Scale, National Emergency X-Radiography Utilization Study low-risk criteria, criteria for a positive diagnostic peritoneal lavage, bedside airway tools and rescue airway devices, and difficult airway predictors. Figures include an illustration showing immobilization of the cervical spine, a computed tomographic scan of an open book pelvic fracture, left-sided traumatic hemothorax, focused abdominal sonography for trauma examination, and the appropriate intercostal spaces of needle insertion. This review contains 5 highly rendered figures, 6 tables, and 115 references.

Author(s):  
Sebastian Dawson-Bowling ◽  
Serena Ledwidge

Appreciation of the ‘golden hour’ for resuscitation, and adoption of prin­ciples of the advanced trauma life support (ATLS) system are key factors in improving outcome for the patient with major injuries. Adherence to the strict protocols of the ABCDEs of the primary survey enables the trauma team to identify and deal with life-threatening conditions, prior to definitive treatment of problems with lesser immediacy. The clinician who understands the mechanism of injury will main­tain heightened levels of suspicion for clinical signs which point to well-recognized conditions resulting in early mortality and morbidity, for instance, tension pneumothorax, cardiac tamponade, and rising intrac­ranial pressure. This chapter will probe your grasp of the principles of trauma manage­ment. You will also be tested on common patterns of thoracic, abdomi­nal, vascular, and cranial injuries. Whilst clinical presentations of civilian trauma have remained consist­ent in recent years, the impact of military trauma in worldwide theatres of conflict has stimulated numerous advances in the management of trauma. The current impetus for reorganization of trauma services in the UK is tacit acknowledgement of the improvement in outcomes that can be achieved by adherence to recognized protocols in this challenging and demanding field of surgery.


2013 ◽  
Vol 95 (10) ◽  
pp. 333-333
Author(s):  
Stephen Bush

The inaugural Advanced Trauma Life Support (ATLS)® course was run in the UK in 1988 and now over 50 countries worldwide run an ATLS® programme and over a million doctors have been trained. In the early days of ATLS®, its message was ground-breaking. It introduced the ABCDE approach, the generic skills of the trauma team and goal directed care. At the time, this message was at significant odds with the accepted model of history, examination, differential diagnosis, investigation, refinement of the differential and then treatment. It is a testament to the effect that the ATLS® programme has had on medical training throughout the globe that this approach is now the convention.


This chapter provides an overview of the principles of care of the patient who has sustained a traumatic injury. It considers the physiology of trauma and trauma psychology. There is a focus on the general care of the injured patient, considering head, chest, and abdominal trauma in the patient who also has a musculoskeletal injury, as well as a section on Advanced Trauma Life Support (ATLS®). Further sections consider the principles of fracture healing and management, soft tissue and nerve injury, peripheral nerve injury, and crush injuries and traumatic amputation.


2017 ◽  
Vol Publish Ahead of Print ◽  
Author(s):  
Karen J. O'Connell ◽  
Elizabeth A. Carter ◽  
Jennifer L. Fritzeen ◽  
Lauren J. Waterhouse ◽  
Randall S. Burd

2021 ◽  
Vol 8 (10) ◽  
pp. 3122
Author(s):  
Niranjan Ulhasrao Jadhav ◽  
Subrata Pramanik ◽  
Ridhika Munjal ◽  
Anubhav Gupta ◽  
Anirudh Mathur ◽  
...  

Chest trauma is now the second most common non-intentional traumatic injury. Chest trauma is associated with high mortality. Control of blood loss and stabilization of vital organs is of vital importance over diagnostic and therapeutic measures. Bleeding may arise from chest wall, intercostal or internal mammary arteries, great vessels, mediastinum, myocardium, lung parenchyma, diaphragm or abdomen. Modified early warning signs (MEWS) score of >9 on presentation have shown higher rate of mortality. Diagnostic modalities such as extended-focused assessment with sonography in trauma (eFAST) have been effective. The type of surgical approach alters according to the site of injury. We here presented our experience with six such patients. All the six patients involved in this study had penetrating trauma chest with various sharp weapons including dagger, ice pick, flag post. Time of presentation of all these patients were delayed due to ours being a tertiary centre. The patients were explored on the basis of eFAST findings, intercostal drainage, hemodynamics. Out of the six patients two patients succumbed and the patients who died also had high MEWS score. All the patients were approached surgically with respect to the type of injury sustained. Penetrating chest trauma present a challenging clinical situation which warrants early evaluation and intervention. The cases of chest trauma then be it blunt or penetrating should always be treated within the advanced trauma life support (ATLS) guidelines followed by the definitive management. Regardless of any penetrating object, the foreign body should be left in situ and only to be removed under vision. If in case the penetrating object has already been removed the operative intervention is decided on the amount of drainage. With blunt chest trauma, approximately 15% of the deaths result directly from intrathoracic injury, but with penetrating chest trauma, nearly 100% of the deaths result from intrathoracic injury. Hence, the operative exploration of the chest in penetrating chest trauma and should be done on emergent basis as the mechanism of injury, vital organ damage and hemodynamic status all equate to higher rate of mortality.


POCUS Journal ◽  
2016 ◽  
Vol 1 (3) ◽  
pp. 13-14
Author(s):  
Stuart Douglas, PGY4 ◽  
Joseph Newbigging, MD ◽  
David Robertson, MD

FAST Background: Focused Assessment with Sonography for Trauma (FAST) is an integral adjunct to primary survey in trauma patients (1-4) and is incorporated into Advanced Trauma Life Support (ATLS) algorithms (4). A collection of four discrete ultrasound probe examinations (pericardial sac, hepatorenal fossa (Morison’s pouch), splenorenal fossa, and pelvis/pouch of Douglas), it has been shown to be highly sensitive for detection of as little as 100cm3 of intraabdominal fluid (4,5), with a sensitivity quoted between 60-98%, specificity of 84-98%, and negative predictive value of 97-99% (3).


Author(s):  
Fedorova Jana ◽  
Kellerova Erika ◽  
Bimbova Katarina ◽  
Pavel Jaroslav

AbstractSpontaneous recovery of lost motor functions is relative fast in rodent models after inducing a very mild/moderate spinal cord injury (SCI), and this may complicate a reliable evaluation of the effectiveness of potential therapy. Therefore, a severe graded (30 g, 40 g and 50 g) weight-compression SCI at the Th9 spinal segment, involving an acute mechanical impact followed by 15 min of persistent compression, was studied in adult female Wistar rats. Functional parameters, such as spontaneous recovery of motor hind limb and bladder emptying function, and the presence of hematuria were evaluated within 28 days of the post-traumatic period. The disruption of the blood-spinal cord barrier, measured by extravasated Evans Blue dye, was examined 24 h after the SCI, when maximum permeability occurs. At the end of the survival period, the degradation of gray and white matter associated with the formation of cystic cavities, and quantitative changes of glial structural proteins, such as GFAP, and integral components of axonal architecture, such as neurofilaments and myelin basic protein, were evaluated in the lesioned area of the spinal cord. Based on these functional and histological parameters, and taking the animal’s welfare into account, the 40 g weight can be considered as an upper limit for severe traumatic injury in this compression model.


2020 ◽  
Vol 2020 (12) ◽  
Author(s):  
Tae Nagama ◽  
Natsuko Kakudo ◽  
Atsuyuki Kuro ◽  
Yujiro Ozaki ◽  
Yasuko Shirasawa ◽  
...  

Abstract Degloving, a skin and subcutis avulsion, is a severe traumatic injury sometimes caused by rolling wheels or machines. Although avulsed flaps are often readapted to its original site, most of these tissues become necrotic. Due to the extensive skin and soft tissue deficiency caused by necrosis, treatment becomes difficult. Skin grafts harvested from avulsed flaps may be used to treat degloving injuries, while negative pressure wound therapy (NPWT) is used to secure the grafts. Commonly used porous polyurethane foam wound fillers are difficult to set in circumferential extremity degloving injuries; gauze-based wound fillers are easier to use and cause less pain during dressing changes. We present a case of an extensive, full-circumference left lower-extremity degloving injury, treated using NPWT with gauze-based wound fillers for fixation of skin grafts harvested from avulsed flaps after hydrosurgical debridement. For complex wound geometries, gauze-based wound fillers can be easily applied for skin graft immobilization.


1995 ◽  
Vol 20 (4) ◽  
pp. 529-531 ◽  
Author(s):  
B. GEBHARD ◽  
G. MEISSL

A case of severe traumatic injury to the thumb treated by an extended variation of the first dorsal metacarpal artery neurovascular pedicled island flap is reported.


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