- Review Article
- Open Access
A brief history of treatment of burn injury in China
© Author 2013
- Published: 18 September 2013
- Multiple Organ Dysfunction Syndrome
- Fluid Replacement
- Total Body Surface Area
- Inhalation Injury
- Donor Skin
Professor Jun Wu
Professor Zhiyong Sheng has been one of the pioneers in studying burn injury management and promoting the organization of the burn association in the 80s of the last century in China. His recall and introduction in this manuscript tell us about the great contribution they made and the most important events in the history of Chinese burn management in the past years, which is very informative and worthwhile to be shared by the people who have been engaging in burn prevention and burn management.
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During the 50s of the last century, the Chinese government realized that an enormous quantity of steel was necessary to build up modern industries which were almost completely ruined by Japanese invasion and civil wars; the government launched a national campaign to increase the steel production. Unfortunately, due to various reasons, the campaign produced an unforeseen mishap in the form of a tremendous increase in burn victims. In 1958, a steel worker named Qiu was injured with a burn area occupying 89% TBSA, of which 23% TBSA was whole-thickness injury. He was sent to the Ruijin Hospital, which was a hospital affiliated to the Second Shanghai Medical College. With a collective effort of all the medical staff of the hospital and pre-medical professors, they broke the prevailing dictum of treatment of an extensive burn trauma, mustering all the wisdom and intelligence of the entire medical faculty for the care of the patient, who finally survived this massive injury This miraculous achievement not only thrilled the domestic surgeons who were interested in burn care but also encouraged them to further study the treatment and pathogenesis of this devastating injury. Many hospitals, both municipal and military, began to make effort in treating burn victims with more competence, especially those run by the armed forces, where concerted effort was made on the study of burn treatment. Among all the domestic centers for burn care, the Third and Fourth Military Medical Universities, 301st and later 304th Hospital, Ruijin Hospital, and Jishuitan Hospital began to attain the leadership in the treatment and research in pathophysiological changes and therapeutic strategies of burn injury.
At the early stage of the development of burn care in China, it was recognized that the rule of nine for the estimation of burn areas, as advocated by Wallace and Pulaski, was not suitable in China due to an apparent difference in the body-build between Chinese population and Westerners. Therefore, a new “rule of nine or ten” was devised by actual measurement of various body parts using paper molds on volunteers and cadavers. By popularizing this method, not only the burn size lethal to 50% of patients (LA 50) could be better compared among burn centers, but also the amount of fluids to be infused during shock phase could be better estimated. Another notable achievement in the treatment of extensive deep burn, as advocated by Ruijin Hospital, was extensive excision of whole-thickness burn wounds followed by coverage with full-thickness allogeneic skin, on which hundreds of apertures were made to receive transplantation of tiny pieces of autologous skin after “take” of the allogeneic skin. As hundreds of these tiny autologous grafts grew and coalesced, the burn wound was totally healed with simultaneous rejection of the allograft. With this advancement in the treatment of an extensive full-thickness burn, in 1971, 10 patients suffering from a burn injury exceeding 90% TBSA with full-thickness injury over 70% TBSA were saved. This remarkable result marked the milestone in the treatment of extensive deep burn injury in China. However, this maneuver was time-consuming and labor-intensive. A few years later, burn surgeons working in Jishuitan Hospital in Beijing developed a new method of grafting of tiny pieces of autologous skin by flotation method. With this method, tiny pieces of autologous skin could be evenly applied to the healthy raw surface after excision of a large area of full-thickness burn eschar. This method was soon accepted nationwide, as it shortened the operation time and was also labor-saving. It was also analogous to cultivation of epidermis in a healthy environment under the protection of allografts. This method was rapidly popularized throughout the country, and it was praised as a new advancement in the field of burn treatment. At the same time, the importance of timely availability of allogeneic skin was keenly recognized and the method of preserving available cadaver skin was investigated, and thus, skin bank was duly established. In a few years, similar establishment was installed in a large number of burn centers all over China.
In the late 70s of the last century, it was recognized that it was of utmost importance to explore the underlying pathophysiology of burn trauma in order to fully understand the serious complications arising from a thermal injury to a seemingly superficial covering of the body, albeit the largest organ of the body. With this in mind, the mechanism of burn shock was investigated in depth in various burn institutes, especially those located in Chongqing, Shanghai, and Beijing. The changes in intracellular pH and ions were studied in vital cells, resulting in better understanding of intracellular derangements of pH and ions in various organs in vivo. The alarming hemoglobinuria during early shock period and marked anemia after fluid replacement for shock in patients suffering from an extensive deep burn trauma prompted some surgeons to transfuse whole blood during the shock phase. With rheological study, it was shown that whole blood transfusion in such circumstance did not increase the viscosity of the circulating blood. One of the investigators found that during shock phase, disturbance of the microcirculation was a major problem. A chemical compound extracted from Polygonium cuspidatum would relieve this adverse condition, thus allaying circulatory deficiency during shock phase. However, this experimental result, though plausible, has not been evaluated by multicenter, double-blinded clinical study as yet. Various fluid replacement formulae were derived, some of them being the result of experimental studies and the others gathered through clinical observations employing hemodynamic observation with the aid of the Swan-Ganz catheter. A unanimous opinion of fluid replacement was that the fluid should be given in a speed, so that the urinary output was maintained at about 50 ml/h.
The injurious effect of an extensive burn trauma on the heart[9–12] was studied in depth. It was found that myocardial dysfunction and/or damage occurred as soon as half an hour after the occurrence of a major burn trauma, and it actually participated in the pathogenesis of burn shock by aggravating impairment of circulation. The pathogenesis of cardiac derangement in burn shock was attributed to multiple factors, including damage of intracellular organelles, apoptosis of myocardial cells, etc. Therefore, it was advocated that measures should be taken to guard against the occurrence of myocardial injury early in the prevention and treatment of burn shock.
With the aid of gastric CO2 tenometer, it was found that the pH of gastrointestinal mucosa remains abnormally low until 36 h after fluid replacement therapy,[13,14] indicating that the intestinal mucosa was still devoid of sufficient blood supply, which doubtlessly would result in an impairment of intestinal mucosal barrier function, followed by translocation of intestinal bacteria and bacterial toxins. Therefore, it was advisable to give a vasodilator, such as anisodamine, during fluid replenishment. It was also found that fluid resuscitation for burn shock produced the generation of oxygen radicals due to reperfusion of body tissues. To reduce the harmful effects of oxygen radicals, it was advisable to give oxygen radical scavengers such as vitamin C.
It was also found that the bacteria underneath the burn eschar multiplied very rapidly. In view of the possible occurrence of serious infection early after the injury due to immunosuppression as a result of the serious burn injury, some specialists advocated early extensive surgical removal of burn eschars within 2 or 3 days after the injury. This so-called extensive escharectomy during “shock phase” was successfully practiced, and it was finally accepted by many burn surgeons.
In a patient suffering from an extensive burn, the donating area of normal skin to cover the excision area would be very limited. To solve this problem, it was found that the scalp, which usually escaped the injury, could be an ideal donor site. The raw wound resulting from donating healthy epidermis was found to heal completely within 5–6 days, if only very thin donor skin was harvested. It was found that the scalp could supply donor skin for over 20 times during the whole course of treatment of an extensive burn without impeding the regrowth of hair.
In view of the fact that many burn patients succumbed to multiple organ dysfunction syndrome (MODS), its pathogenetic mechanism had been investigated. In animal experiments, two-hit phenomenon was definitely proved. Finally, it was shown that sepsis was the most important pathogenetic factor of MODS. It was indicated that many pro-inflammatory factors, such as tumor necrosis factor and interleukins, participated in the initial stage of sepsis. Among these pro-inflammatory factors, the role of a late-appearing factor, namely high-mobility group box 1 protein, change in the quantity of human leukocyte antigen (HLA)-DR on CD14+ monocytes, and extensive apoptosis of lymphocytes after a major burn trauma were studied. The results of the study showed that there was a distinct phenomenon of immunological dissonance, manifesting a furious inflammatory reaction on one hand and a marked immunodepression on the other hand. Therefore, the treatment strategy should be aimed to suppress the inflammatory reaction and upgrade the immune function at the same time. This pathogenetic mechanism of sepsis was proved in the treatment of septic patients with ulinastatin combined with thymosin in a multicenter, double-blinded, placebo-controlled clinical study, showing the results of significant lowering of the 28-day mortality rate and a significant lowering of the Acute Physiology and Chronic Health Evaluation II (APACHE II) score.
An extensive burn injury would doubtlessly produce intensive metabolic disturbances. Intensive studies were carried out by a research team of Institute of Burn Research (IBR) of Third Military Medical University, which is currently the largest institute devoted to treatment and research of all the aspects of burn trauma. As a result of their work, it was found that the Curreri formula for food intake was not suitable for Chinese patients, and so, a new dietary formula was developed after an intensive clinical research, which has been popularized throughout the country with good results. Furthermore, the mechanism of metabolic disturbances had been thoroughly studied. It was found that the injured skin is not the sole source of hypermetabolism after a major burn trauma; however, the internal organs, especially the gut, also participated in its pathogenesis. It was also found that early enteral feeding would promote resuscitation of the barrier function of the intestine and mitigate the hypermetabolic effect. It was found that there would be a notable loss of zinc from burn wounds and it might retard wound healing. To compensate the loss, zinc was added to silver sulfadiazine cream for topical use in order to enhance healing of the burn wound.
It has been universally recognized that inhalation injury is a major affliction accompanying burn trauma, and also it often constitutes one of the major causes of morbidity and mortality of a major burn. The pathogenesis of inhalation injury was intensively investigated by the IBR of the Third Military Medical University. They found in an animal model of inhalation injury that there was a loss of surfactant in the respiratory tract, resulting in collapse of alveoli, serious derangement of transportation of lung water causing lung edema, and also heavy infiltration of inflammatory cells in the parenchyma, leading finally to acute respiratory failure. However, the introduction of extraneous surfactant was found to be ineffective in the treatment of inhalation injury. In another institute, it was shown in an animal experiment that administration of Epidermal Growth Factor (EGF) in aerosol caused an improvement in water transport, and the administration of ulinastatin could notably allay fierce acute inflammatory reaction of the smoke-attacked mucosa of the respiratory tract.
Rehabilitation for burn victims, especially in whom the integument over joints was involved, had been stressed, as it has been proved that early rehabilitation throughout the acute stage of medical and surgical care is essential for success. Malleable splints were used early after the injury, and physical exercises were soon encouraged after admission. Rehabilitation measures were advised to be continued after discharge from the hospital. In many patients, plastic surgery was necessary to correct contractures and disfigurements, and as a result, the technology of plastic and reconstructive surgery was advanced in tandem. As rehabilitation after an extensive burn injury must be directed to the individual patient and his or her family member rather than the specific patient, holistic care must be advocated.
Collaborating groups were first formed among hospitals and valuable experiences in burn care were exchanged nationwide. In 1958, a national meeting was organized in Shanghai for exchanging experiences in burn care. Following this meeting, a similar meeting was organized by the army in 1959. The first national burn meeting was convened in January 1960, and it was sponsored by the IBR of the Third Military Medical University. In 1962, burn departments of the military hospitals were organized to form a board for the exchange of experience and research results. Under the auspices of Chinese Medical Association, Chinese Burn Society was inaugurated in 1983. To facilitate the exchange of ideas and new findings both in clinical and investigatory arenas, Chinese Journal of Plastic and Burn Surgery was first published in 1985. With rapid development of arts and science of burn surgery, the journal was reorganized, and Chinese Journal of Burns has been independently published bi-monthly since 2000.
International exchange of science and arts in the field of burn care had been conducted. Under the selfless encouragement of Dr. Basil Pruitt, together with the generous help of Dr. David Herndon, Dr. Alexander, and Dr. McManus, Sino-American Burn Conference was convened for four sessions, through which burn surgeons were able to exchange clinical experience and experimental results in the field of burn treatment, and more importantly, learn new accomplishments in the science and arts of burn surgery from American specialists. Domestically, burn convention has been organized both nationwide and regionally every year since then, and experience and novel technologies in the realm of burn care and technology of plastic surgery involved in the management of burn trauma were exchanged regularly. In the latest national meeting, the importance of prevention of burn injury and rehabilitation for burn patients were again strongly emphasized. It is delightful to see that quite a number of burn centers have established well-equipped rehabilitation installment. It is the hope of all the Chinese surgeons devoting their efforts in burn care that the number of disabled would be decreased, so that they could still devote themselves to the nationwide effort for the renaissance of Chinese civilization.
The loss of the perspiration function in patients surviving a major full-thickness burn injury remains to be an unsolved problem in the field of burn care. The quality of life is extremely poor in these survivors, especially during summer months. A research project has been launched with the aim of recuperating perspiration function in such survivors. It is our heartfelt hope that this extremely difficult problem could be successfully solved in the near future.
Though quite a few burn centers have claimed that their LA50 has reached as high as 98% TBSA, we hope that through the aggregated efforts of meticulous clinical observation and intensive translational research, not only by devoted clinicians in the burn department but also by the concerted efforts of preclinical investigators, the survival rate could be further elevated, the degree of suffering of the patients would be mitigated, and more importantly, the quality of life of the survivors would be immensely improved.
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- Evans EI, Purnell OJ, Robinett PW, Batchelor A, Martin M. Fluid and electrolyte requirements in severe burns. Ann Surg 1952;135:804–17.View ArticlePubMedPubMed CentralGoogle Scholar
- Yang Z. Chinese Burn Surgery. Peking, China: People’s Medical Publishing House; 2008.Google Scholar
- Li A. Burns Therapy. Peking, China: People’s Medical Publishing House; 1995.Google Scholar
- Burns Department of Ruijin Hospital SJUSoM. Treatment of Burns. Shanghai, China: Shanghai People’s Publishing 55 House; 1975.Google Scholar
- Mingliang Z, Daxin C, Zhide C, Changye W, Ming Z, Chunlai Z. Application of minced skin in extensive burns. Chin J Plast Surg 1987;2:100–2.Google Scholar
- Shengde G. Review and prospect about shock induced by burns in China. Chin J Surg 1999;37:598–601.Google Scholar
- Guo ZR, Sheng ZY, Wang DW, Zhu ZM, Li CG, Gao WY, et al. The use of blood in burn shock. Clinical and experimental study. J Burn Care Rehabil 1989;10:226–40.View ArticlePubMedGoogle Scholar
- Kesen Z, Zuojiang Z, Kunying W, Zongxiu Y. The significance of microcirculation disorder in shock induced by burn injury. Med J Chin Peoples Liberation Army 1984;01:18–21.Google Scholar
- Yuesheng H, Ao L, Zongcheng Y. Clinical research of cardiac damage and its machanism in burn injury patients. Chin J Plast Surg 1993;2:99–102.Google Scholar
- Huang YS, Yang ZC, Yan BG, Yang JM, Chen FM, Crowther RS, et al. Pathogenesis of early cardiac myocyte damage after severe burns. J Trauma 1999;46:428–32.View ArticlePubMedGoogle Scholar
- Xiao R, Lei ZY, Dang YM, Huang YS. Prompt Myocardial Damage Initiates Hepatic, Renal and Intestinal Injuries Early Following Severe Burns in Rats. J Trauma. 2011;71(3):663–71.View ArticlePubMedGoogle Scholar
- Huang YS. Role and mechanism of vasular and cardiac factor in the pathogenesis of burn shock and its prevention and treatment. Chin J Burns 2013;29(2):109–12.Google Scholar
- Guangxia X. Attach importance to enterogenic infection after burn injury. Chin J Plast Surg 1996;02:81–2.Google Scholar
- Xiaolin C, Zhiyong S, Zhenrong G, Lixin H, Jun Z, Xiaowen R, et al. Gastrointestinal mucosa ischemia in anti-shock after burn injury. Chin J Plast Surg 1998;04:262-5.Google Scholar
- Sen H, Zhiyong S. Anisodamine can augment mucosal blood flow during gut ischemia reperfusion. Chin Crit Care Med 2001;11:678–80.Google Scholar
- Zhaofan X. Develop the sense of cell protection during early stage of treatment after burn injury. Chin J Burns 2002;05:7–8.Google Scholar
- Guo Z. Scrab excision during shock period contributes to control or decrease infectious complications. Chin J Surg 1995;7:406–8.Google Scholar
- Ao L. Li Ao Burns. Shanghai, China: Shanghai Scientific & Technical Publishers; 2001.Google Scholar
- Mishima S, Yukioka T, Matsuda H, Shimazaki S. Mild hypotension and body burns synergistically increase bacterial translocation in rats consistent with a “two-hit phenomenon”. J Burn Care Rehabil 1997;18:22–6.View ArticlePubMedGoogle Scholar
- Yongming Y, Zhiyong S. The significance and potential role of high mobility group-1 protein (HMG-1) in sepsis. J Chin Gen Pract 2002;9:753–6.Google Scholar
- Chai JK, Sheng ZY. The present strategy and ponderation on prevention and treatment of burn sepsis and multiple organ dysfunction syndrome (MODS). Chin J Burns 2008;24:378–80.Google Scholar
- Lin HY Clinical trial with a new immunomodulatory strategy: Treatment of severe sepsis with Ulinastatin and Maipuxin. Natl Med J Chin 2007;87:451–7.Google Scholar
- Wang SL. Progress of burn research in metabolism and nutrition in China. Chin J Burns 2008;24:396–9.Google Scholar
- Zhenrong G, Ligen L, Feng L. Attach importance to Zinc supplement After burn injury to promote healing of wound. J Chin Gen Pract 2001;04:202–3.Google Scholar
- Zhiyuan L, Ao L, Zongcheng Y, Peifang Z, Jintang S. Change of pulmonary surfactant of rabbit after respiratory tract burn injury by steam. J Third Mil Med Univ 1984;01:1–7.Google Scholar
- Xing C, Qun L. Study on treatment of epidermal growth factor in rats with inhalation injury. Chin J Inj Repair Wound Heal 2009;1:13–9.Google Scholar
- Qun L, Shihai F, Yongjian Z, Yun S, Quan L. Protective effects of different agents on smoke inhalation injury in rats model. Chin J Inj Repair Wound Heal 2008;4:433–8.Google Scholar
- Yuming S, Zuyao S. Burn injury recovery and functional exercise. J Chin Gen Pract 2001;4:265–6.Google Scholar
- Chen J, Li-Tsang CW, Yan H, Liang G, Tan J, Yang S, et al. A survey on the current status of burn rehabilitation services in China. Burns 2013;39:269–78.View ArticlePubMedGoogle Scholar
- Fu XB, Sheng ZY. Stem cells and wound repair in burns. Chin J Burns 2008;24:365–6.Google Scholar