scholarly journals Treatment of bilateral sacral insufficiency fractures with sacroplasty in a patient with motor complete tetraplegia

2021 ◽  
Vol 7 (1) ◽  
Author(s):  
Marla A. Petriello ◽  
Suzanne Groah ◽  
Suman D. Matiana

Abstract Introduction Osteoporosis is a common secondary complication of spinal cord injury, with fragility fractures typically occurring in the lower body and management often is conservative. Case presentation We present a 52-year-old male with chronic complete tetraplegia who presented to the emergency room with unremitting autonomic dysreflexia (AD). He was admitted for medical management of the AD when a source of the AD could not be identified. After an extensive workup, the patient was found to have bilateral sacral insufficiency fractures. He subsequently underwent sacroplasty with immediate and full resolution of AD symptoms and return to full premorbid function within 24 h. Discussion People with chronic spinal cord injury (SCI) are at risk for spinal column fragility fractures in addition to lower extremity fractures. Vertebroplasty may be a safe option for treatment of insufficiency fractures in situations where conservative care may put people at risk for significant immobility-associated complications.

2021 ◽  
pp. 1753495X2110119
Author(s):  
Katherine Robertson ◽  
Felicity Ashworth

Pregnancy in women with spinal cord injury is considered high risk because it may exacerbate many of their existing problems, including autonomic dysreflexia, spasms, decubitus ulcers, urinary tract infections and respiratory infections. Due to the relative rarity of spinal cord injury in the general obstetric population, clinicians often lack familiarity of these specific problems and the women themselves are usually more experienced in their own management than their obstetric team. However, studies have demonstrated that pregnancy outcomes are generally good with appropriate and experienced obstetric care. In this review, we examine the available literature and provide advice on pre-conception counselling and the antenatal, intrapartum and postnatal management of pregnant women with spinal cord injury.


2016 ◽  
Vol 33 (18) ◽  
pp. 1651-1657 ◽  
Author(s):  
Renée J. Fougere ◽  
Katharine D. Currie ◽  
Mark K. Nigro ◽  
Lynn Stothers ◽  
Daniel Rapoport ◽  
...  

2012 ◽  
Vol 3 ◽  
Author(s):  
Leanne M. Ramer ◽  
A. Peter van Stolk ◽  
Jessica A. Inskip ◽  
Matt S. Ramer ◽  
Andrei V. Krassioukov

2021 ◽  
pp. 1-21
Author(s):  
Charlotte Y. Adegeest ◽  
Jort A. N. van Gent ◽  
Janneke M. Stolwijk-Swüste ◽  
Marcel W. M. Post ◽  
William P. Vandertop ◽  
...  

OBJECTIVE Secondary health conditions (SHCs) are long-term complications that frequently occur due to traumatic spinal cord injury (tSCI) and can negatively affect quality of life in this patient population. This study provides an overview of the associations between the severity and level of injury and the occurrence of SHCs in tSCI. METHODS A systematic search was conducted in PubMed and Embase that retrieved 44 studies on the influence of severity and/or level of injury on the occurrence of SHCs in the subacute and chronic phase of tSCI (from 3 months after trauma). The Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines were followed. RESULTS In the majority of studies, patients with motor-complete tSCI (American Spinal Injury Association [ASIA] Impairment Scale [AIS] grade A or B) had a significantly increased occurrence of SHCs in comparison to patients with motor-incomplete tSCI (AIS grade C or D), such as respiratory and urogenital complications, musculoskeletal disorders, pressure ulcers, and autonomic dysreflexia. In contrast, an increased prevalence of pain was seen in patients with motor-incomplete injuries. In addition, higher rates of pulmonary infections, spasticity, and autonomic dysreflexia were observed in patients with tetraplegia. Patients with paraplegia more commonly suffered from hypertension, venous thromboembolism, and pain. CONCLUSIONS This review suggests that patients with a motor-complete tSCI have an increased risk of developing SHCs during the subacute and chronic stage of tSCI in comparison with patients with motor-incomplete tSCI. Future studies should examine whether systematic monitoring during rehabilitation and the subacute and chronic phase in patients with motor-complete tSCI could lead to early detection and potential prevention of SHCs in this population.


2006 ◽  
Vol 6 ◽  
pp. 2445-2449 ◽  
Author(s):  
Subramanian Vaidyanathan ◽  
Peter L. Hughes ◽  
Bakul M. Soni

In a male patient with cervical spinal cord injury, the urinary bladder may go into spasm when a urethral catheter is removed and a new Foley catheter is inserted. Before the balloon is inflated, the spastic bladder may push the Foley catheter out or the catheter may slip out of a small-capacity bladder. An inexperienced health professional may inflate the balloon of a Foley catheter in the urethra without realizing that the balloon segment of the catheter is lying in the urethra instead of the urinary bladder. When a Foley balloon is inflated in the urethra, a tetraplegic patient is likely to develop autonomic dysreflexia. This is a medical emergency and requires urgent treatment. Before the incorrectly placed Foley catheter is removed, it is important to document whether the balloon has been inflated in the urinary bladder or not. The clinician should first use the always available tools of observation and palpation at the bedside without delays of transportation. A misplaced balloon will often be evident by a long catheter sign, indicating excessive catheter remaining outside the patient. Radiological diagnosis is not frequently required and, when needed, should employ the technique most readily available, which might be a body and pelvic CT without intravenous contrast. An alternative radiological technique to demonstrate the position of the balloon of the Foley catheter is described. Three milliliters of nonionic X-ray contrast medium, Ioversol (OPTIRAY 300), is injected through the side channel of the Foley catheter, which is used for inflating the balloon. Then, with a catheter-tip syringe, 30 ml of sterile Ioversol is injected through the main lumen of the Foley catheter. Immediately thereafter, an X-ray of the pelvis (including perineum) is taken. By this technique, both the urinary bladder and balloon of the Foley catheter are visualized by the X-ray contrast medium. When a Foley catheter has been inserted correctly, the balloon of the Foley catheter should be located within the urinary bladder, but when the Foley catheter is misplaced with the balloon inflated in the urethra, a round opaque shadow of the Foley balloon is seen separately below the urinary bladder. This radiological study takes only a few minutes to perform, can be carried out bedside with a mobile X-ray machine, and does not require special expertise or preparations, unlike transrectal ultrasonography. When a Foley balloon is inflated in the urethra, abdominal ultrasonography will show an absence of the Foley balloon within the bladder. The technique described above aids in positive demonstration of a Foley balloon lying outside the urinary bladder. Such documentation proves valuable in planning future treatment, education of health professionals, and settlement of malpractice claims.


Spinal Cord ◽  
2016 ◽  
Vol 54 (10) ◽  
pp. 884-888 ◽  
Author(s):  
C Lucantoni ◽  
R G Krishnan ◽  
M Gehrchen ◽  
D W Hallager ◽  
F Biering-Sørensen ◽  
...  

Author(s):  
Christine Olney ◽  
Jennifer Leestma ◽  
Andrew Hansen ◽  
John Ferguson ◽  
Mary Murphy Kruse ◽  
...  

Veterans with spinal cord injury (SCI) are at high risk for developing debilitating pressure injuries, particularly to their seated areas (e.g. coccyx, sacral and gluteal) [1]. To prevent development of a pressure injury the Veteran with SCI is encouraged to invoke multiple prevention strategies [2]. One recommended prevention strategy is to conduct twice daily skin self-screenings. Skin self-screening is usually conducted in the bed, prior to arising in the morning and prior to sleep in the evening. The current method to conduct skin self-screening utilizes a mirror at the end of a long handle. The Veteran with SCI examines at-risk areas for changes in their skin integrity such as discoloration, swelling, or changes in skin texture. This method can take up to 20 minutes to complete. In the event there is a change to skin integrity, the pressure injury prevention protocol advises the Veteran with SCI to off-load that particular area for at least 24 hours [3]. Further, he/she is advised to consult with their skin specialist if the area does not resolve to normal color or texture within that next 24 hour period. The consequences of ignoring an early stage pressure injury can be serious e.g. weeks to months of hospitalization attempting to heal the injury, tens to hundreds of thousands of dollars in healthcare costs, possible surgery to close the wound and possibly death [4]. Informal interviews with Veterans with SCI clarified and validated that conducting skin screening with the mirror could be very challenging due to barriers such as: not having a baseline image to compare to; the mirror image not being viewable to the user due to lack of user flexibility or body habitus; the mirror does not easily allow a complete view of all the at-risk areas; the user not being able to discern what he/she is actually viewing possibly due to mirror image distortion and limited visual acuity. The need for a better skin self-screening device was evidenced by the advanced pressure injuries Veterans presented to their healthcare providers. Finding a pressure injury in the early stages of development and intervening immediately, such as repositioning, can improve the trajectory of the injury [5]. Therefore the project goal was to offer a better tool for and improve the efficacy of skin self-screening for the Veterans with SCI. To overcome the identified barriers, our team of VA clinicians and engineers of the Minneapolis Adaptive Design & Engineering (MADE) program invented such a device at the Minneapolis VA. This paper presents the patient centered iterative process that was used to develop a skin self-screening device and the future directions for this technology.


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