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CAP 3 Controlled Access Pharmaceutical Dispenser
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Recertified Cardiac Science Powerheart G3 Biphasic AEDs
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AirFlow Manual Resuscitator BVM
AirFlow Resuscitation Bags with optional manometer feature a Guardian Bacterial/Viral Filter on the exhalation port for increased protection and safety.
January 1, 2012
Scald injuries in the pediatric patient
Burns affect approximately one million Americans each year (LaBorde, 2004), half of whom receive medical treatment (American Burn Association, 2007). Unfortunately, about 3,500 of these patients die as the result of their injuries (American Burn Association, 2007). Many of the hospitalized patients who survive are severely disfigured or disabled. By providing proper care, pre-hospital personnel can reduce the morbidity and mortality associated with burn injuries.
The primary mechanism for burn injury in the pediatric population is scalding, which can result in significant morbidity and mortality (Drago, 2005; Guzel, Aksu, Aylanç, Duran, & Karasalihoglu, 2009). One-fourth of burn injuries that present to a pediatric emergency department involve children under the age of 5 years (Rimmer et al., 2008). Almost one-third of all scalding burns occur during the during the winter months from December through February (Guzel, Aksu, Aylanç, Duran, & Karasalihoglu, 2009), although researchers in Arizona said that half of all pediatric scald injuries occur in the first quarter of the year (Rimmer et al., 2008).
Contact with hot water is responsible for between one-fourth (Rimmer et al., 2008) and two-thirds of all childhood burns (Guzel, Aksu, Aylanç, Duran, & Karasalihoglu, 2009). Compared to other type of scalding injury, hot water scalds are usually more severe and have a higher mortality rate (Feldman, Schaller, Feldman, & McMillon, 1978). Full thickness burns can occur after one-second contact with water heated to 156°F (69°C) (Rimmer et al., 2008). Hot water scalds are a frequent form of child abuse (Keen, Lendrum, & Wolman, 1975; Smith & Hanson, 1974; Stone, Rinaldo, Humphry, & Brown, 1970).
Another significant mechanism for pediatric scalding involves microwave ovens. The University of Chicago Burn Center reports scalds in children as young as 18 months caused by the child opening a microwave oven to retrieve heated food (Lowell, Quinlan, & Gottlieb, 2008). While many models have locking mechanisms that prevent children from operating the oven, no model prevents children from opening the oven door once the food is heated.
There are several factors that contribute to the incidence and severity of burn injury in the pediatric population. Children, especially at the toddler age and younger, are inquisitive by nature and learn by touching and tasting things in their environment. Many lack the physical and cognitive skills necessary for quick escape from the burning liquid (Ray, 1995). Compared to adults, children’s skin is usually thinner and more sensitive to the heat effects of hot liquids. Children have a proportionately larger body surface area than adults. This anatomical difference allows children to loose fluids faster than adults, which places them at a greater risk for developing burn shock more quickly.
Burns covering an area larger than 10% body surface area in a child can produce burn shock unless the patient receives adequate fluid replacement (Bull & Jackson, 1952). However, burn shock does not develop as quickly as hemorrhagic shock. Intravascular and interstitial fluid shifts continue for 24 to 36 hours depending upon the extent of the burns (Bull & Jackson, 1952). The greatest fluid shift occurs within the first 8 to 12 hours after the burn. If the prehospital assessment reveals the presence of hypovolemia, evaluate the patient for other injuries that may be contributing to the fluid loss.
EMS personnel can categorize burns by the depth of damage created. First-degree burns damage only the outer epidermal layer of skin. Second-degree burns extend through the epidermal layer and into the dermis. Third-degree burns extend through the epidermal and dermal layers. Another classification system uses the terms partial or full thickness. Partial thickness would include the first- and second-degree burns, while a full thickness injury refers to a third degree burn.
After ensuring that the offending liquid is no longer continuing the burning process, you should quickly evaluate the patient’s airway, breathing, circulatory and neurological status. Pay special attention to any respiratory noise such as stridor, which indicates a narrowing of the patient’s upper airway. A very rare complication of scalding in the pediatric group is the development of respiratory failure requiring endotracheal intubation despite the absence of inhalation injury or other injury directly to lung tissue (Björk & Svensson, 1993; Desai, Nichols, & Herndon, 1987; Guzel, Aksu, Aylanç, Duran, & Karasalihoglu, 2009; Hudson, Jones, & Rode, 1994; Rocourt et al, 2011; Zak et al., 1999). Although the exact mechanism that produces this failure is still undefined, some researchers suggest fluid over administration (Zak et al., 1999) or activation of a systemic inflammatory response (Rocourt et al., 2011). This complication appears more likely in children under the age of 3 years with a total body surface area scald burn greater than 15% (Rocourt et al., 2011).
Cooling the burn helps reduce the seriousness of the injury, but do not cool the burn for longer than one minute. Cooling for longer periods may induce hypothermia which can complicate patient care. The use of ice to cool a burn is contraindicated since ice causes vasoconstriction, which reduces blood flow to the damaged area.
After cooling the burn, cover the injury with a clean dry dressing. Sterile sheets are not necessary, unless they are immediately available. Do not soak the sheets with water or saline unless it is a small area of minor burns. If the burn area is large, the patient may have difficulty regulating body temperature and is at risk for hypothermia.
First- and second-degree burns can be extremely painful. If authorized by your Medical Director, you should administer a narcotic analgesic as soon as possible. Intranasal administration of some analgesics permits pain relief in the absence of IV access. Some patients will require high doses of analgesics for adequate relief. You must weigh the benefits of increased analgesia against the risk of complications, including respiratory depression.
Björk, L. & Svensson H. (1993). Upper airway obstruction—an unusual complication following a minor scalding injury. Burns, 19(1), 85-87.
Bull, J. P. & Jackson, D. M. (1952). Treatment of burns – I. British Medical Journal, 1(4766), 1018-1020.
Desai, M. H., Nichols, M. M., & Herndon, D. N. (1987). Scald injury of the respiratory tract: An unusual occurrence. Journal of Burn Care and Rehabilitation, 8(3), 210-212.
Drago, D. A. (2005). Kitchen scalds and thermal burns in children five years and younger. Pediatrics, 115(1), 10-16. doi:10.1542/peds.2004-0249
Dries, D. J. (2009). Management of burn injuries – recent developments in resuscitation, infection control and outcomes research [Commentary]. Scandinavian Journal of Trauma, Resuscitation and Emergency Medicine, 17, 14. doi:10.1186/1757-7241-17-14
Feldman, K. W., Schaller, R. T., Feldman, J. A., & McMillon, M. (1978). Tap water scald burns in children, Pediatrics, 62(1), 1–7.
Guzel, A., Aksu, B., Aylanç, H., Duran, R., & Karasalihoglu, S. (2009). Scalds in pediatric emergency department: A 5-year experience. Journal of Burn Care and Research, 30(3), 450-456. doi:10.1097/BCR.0b013e3181a28cac
Hudson, D. A., Jones, L., & Rode, H. (1994). Respiratory distress secondary to scalds in children. Burns, 20(5), 434-437. doi:10.1016/0305-4179(94)90037-X
Keen, J. H., Lendrum, J., & Wolman, B. (1975). Inflicted burns and scalds in children. British Medical Journal, 4(5991), 268-269.
LaBorde, P. (2004). Burn epidemiology: The patient, the nation, the statistics, and the data resources. Critical Care Nursing Clinics of North America, 16(1), 13–25. doi:10.1016/j.ccell.2003.10.003
Lowell, G., Quinlan, K., & Gottlieb, L. J. (2008). Preventing unintentional scald burns: Moving beyond tap water. Pediatrics, 122(4), 799-804. doi:10.1542/peds.2007-2979
Ray, J. G. (1995). Burns in young children: a study of the mechanism of burns in children aged 5 years and under in the Hamilton, Ontario Burn Unit. Burns, 21(6), 463–466. doi:10.1016/0305-4179(95)00020-C
Rimmer, R. B., Weigand, S., Foster, K. N., Wadsworth, M. M., Jacober, K., Matthews, M. R., Drachman, D., & Caruso, D. M. (2008). Scald burns in young children — a review of Arizona burn center pediatric patients and a proposal for prevention in the Hispanic community. Journal of Burn Care and Research, 29(4), 595-605. doi:10.1097/BCR.0b013e31817db8a4
Rocourt, D. V., Hall, M., Kenney, B. D., Fabia, R., Groner, J. I., & Besner, G. E. (2011). Respiratory failure after pediatric scald injury. Journal of Pediatric Surgery, 46(9), 1753-1758. doi:10.1016/j.jpedsurg.2011.04.018
Smith, S. M., & Hanson, R. (1974). 134 battered children: A medical and psychological study. British Medical Journal, 3(5932), 666-670.
Stone, N. H., Rinaldo, L., Humphry, C. R., & Brown, R. H. (1970). Child abuse by burning. Surgical Clinics of North America, 50(6), 1419-1424.
Zak, A. L., Harrington, D. T., Barillo, D. J., Lawlor, D. F., Shirani, K. Z., & Goodwin, C. W. (1999). Acute respiratory failure that complicates the resuscitation of pediatric patients with scald injuries. Journal of Burn Care and Rehabilitation, 20(5), 391-399.