ABSTRAK Latar belakang: luka bakar berat dapat disertai dengan trauma inhalasi, yangakan memicu respons lokal dan sistemik, sehingga menyebabkan berbagaikomplikasi, termasuk systemic inflammatory response syndrome (SIRS) dansepsis. Berbagai kondisi ini menyebabkan hipermetabolime dan hiperkatabolisme,yang membutuhkan tatalaksana nutrisi adekuat untuk membantu prosespenyembuhan pasien. Berbagai kelompok ahli telah memberikan rekomendasitatalaksana nutrisi pada luka bakar berat dan sakit kritis. Namun, akibatketerbatasan sarana dan prasarana, tidak semua rekomendasi dapat dilaksanakan,sehingga tatalaksana nutrisi diberikan secara optimal.Metode: serial kasus ini terdiri atas empat pasien luka bakar berat, yangdisebabkan oleh api, dan disertai trauma inhalasi, yang menyebabkan berbagaikomplikasi, sepsis, multiple organ dysfunction syndrome (MODS) dan multipleorgan failure (MOF). Tatalaksana nutrisi diberikan secara bertahap sesuai dengankeadaan pasien. Pemberian nutrisi diawali dengan nutrisi enteral dini (NED) dalam waktu 2448 jam setelah luka bakar, sebesar 10 kkal/kg BB, menggunakandrip intermiten. Selanjutnya, nutrisi diberikan sebesar 2025 kkal/kg BB padafase akut dan 2530 kkal/kg BB/hari pada fase anabolik. Setelah pasien keluar dari intensive care unit (ICU), target kebutuhan energi menggunakan persamaanXie, dengan protein 1,52,0 g/kg BB/hari, lemak 2530%, dan karbohidrat (KH)5565%. Mikronutrien diberikan berupa multivitamin antioksidan, vitamin B, asam folat, dan vitamin D. Pasien dalam serial kasus ini juga mendapatkan nutrisispesifik glutamin sebesar 0,3 g/kg BB/hari, selama 510 hari. Hasil: tiga pasien mengalami perbaikan klinis, kapasitas fungsional, danlaboratorium. Pasien selamat dan dipulangkan untuk rawat jalan. Masa rawatpasien yang selamat berturut-turut 33 hari, 70 hari, dan 43 hari. Seorang pasienmengalami perburukan dan MOF, hingga meninggal dunia setelah dirawat selama23 hari di ICU. Kesimpulan: tatalaksana nutrisi optimal dapat menunjang penyembuhan lukaserta menurunkan angka morbiditas dan mortalitas pasien luka bakar berat dengan trauma inhalasi dan sepsis.ABSTRACT Background: severe burn trauma combined with inhalation injury initiates localand systemic response, resulting in various complications such as systemicinflammatory response syndrome (SIRS) and sepsis. These conditions stimulatehypercatabolic process, leading to the increase of nutrition requirement. Adequatenutritional support is necessary in order to control both inflammatory andmetabolic response, and also to improve healing process. To date, nutritionalrecommendations specific for severe burn trauma and critical illness have beenestablished. However, many problems including patient?s condition and lack ofresources exist, so optimal nutritional support that fits our settings was delivered.Method: this serial case focused on four severely burned patients caused byflame. Subjects with inhalation trauma and complications such as sepsis, multipleorgan dysfunction syndrome (MODS), and multiple organ failure (MOF) wereincluded in this study. Nutritional support was delivered according to clinicalconditions, patient?s tolerance, and laboratory findings. Early enteral nutrition was initiated within 2448 hours post burns, starting from 10 kcal/kg BW/day withintermittent gravity drip method. Nutrition was gradually increased in order to reach the target of energy for critically ill patients, which is 2025 kcal/kgBW/day in acute phase or 2530 kcal/kg BW/day in anabolic recovery phase. Xie Equation was used to calculate target of total energy for burned patient. Proteinrequirement was 1.52.0 g/kg BW/day. Lipid and carbohydrate given were2530% and 5565% from calorie intake, respectively. Micronutrient supplementation including antioxidants, vitamin B, folic acid, and vitamin D wasalso provided. Glutamin as specific nutrient was delivered by 0.3 g/kg BW/day in 510 days. Results: improvement of clinical condition, functional capacity, and laboratoryparameters was observed in three patients, who could be discharged from hospitaland asked to come back for outpatient care. Their lengths of stay were 33 days, 70days, and 43 days, respectively. However, one patient experienced worsening ofcondition and died after 22 days of care in Intensive Care Unit (ICU). Conclusions: optimal nutritional support for severely burned patients withinhalation trauma and sepsis is necessary in order to improve healing process, as well as decrease morbidity and mortality. ;Background: severe burn trauma combined with inhalation injury initiates localand systemic response, resulting in various complications such as systemicinflammatory response syndrome (SIRS) and sepsis. These conditions stimulatehypercatabolic process, leading to the increase of nutrition requirement. Adequatenutritional support is necessary in order to control both inflammatory andmetabolic response, and also to improve healing process. To date, nutritionalrecommendations specific for severe burn trauma and critical illness have beenestablished. However, many problems including patient?s condition and lack ofresources exist, so optimal nutritional support that fits our settings was delivered.Method: this serial case focused on four severely burned patients caused byflame. Subjects with inhalation trauma and complications such as sepsis, multipleorgan dysfunction syndrome (MODS), and multiple organ failure (MOF) wereincluded in this study. Nutritional support was delivered according to clinicalconditions, patient?s tolerance, and laboratory findings. Early enteral nutrition was initiated within 2448 hours post burns, starting from 10 kcal/kg BW/day withintermittent gravity drip method. Nutrition was gradually increased in order to reach the target of energy for critically ill patients, which is 2025 kcal/kgBW/day in acute phase or 2530 kcal/kg BW/day in anabolic recovery phase. Xie Equation was used to calculate target of total energy for burned patient. Proteinrequirement was 1.52.0 g/kg BW/day. Lipid and carbohydrate given were2530% and 5565% from calorie intake, respectively. Micronutrient supplementation including antioxidants, vitamin B, folic acid, and vitamin D wasalso provided. Glutamin as specific nutrient was delivered by 0.3 g/kg BW/day in 510 days. Results: improvement of clinical condition, functional capacity, and laboratoryparameters was observed in three patients, who could be discharged from hospitaland asked to come back for outpatient care. Their lengths of stay were 33 days, 70days, and 43 days, respectively. However, one patient experienced worsening ofcondition and died after 22 days of care in Intensive Care Unit (ICU). Conclusions: optimal nutritional support for severely burned patients withinhalation trauma and sepsis is necessary in order to improve healing process, as well as decrease morbidity and mortality. ;Background: severe burn trauma combined with inhalation injury initiates localand systemic response, resulting in various complications such as systemicinflammatory response syndrome (SIRS) and sepsis. These conditions stimulatehypercatabolic process, leading to the increase of nutrition requirement. Adequatenutritional support is necessary in order to control both inflammatory andmetabolic response, and also to improve healing process. To date, nutritionalrecommendations specific for severe burn trauma and critical illness have beenestablished. However, many problems including patient?s condition and lack ofresources exist, so optimal nutritional support that fits our settings was delivered.Method: this serial case focused on four severely burned patients caused byflame. Subjects with inhalation trauma and complications such as sepsis, multipleorgan dysfunction syndrome (MODS), and multiple organ failure (MOF) wereincluded in this study. Nutritional support was delivered according to clinicalconditions, patient?s tolerance, and laboratory findings. Early enteral nutrition was initiated within 2448 hours post burns, starting from 10 kcal/kg BW/day withintermittent gravity drip method. Nutrition was gradually increased in order to reach the target of energy for critically ill patients, which is 2025 kcal/kgBW/day in acute phase or 2530 kcal/kg BW/day in anabolic recovery phase. Xie Equation was used to calculate target of total energy for burned patient. Proteinrequirement was 1.52.0 g/kg BW/day. Lipid and carbohydrate given were2530% and 5565% from calorie intake, respectively. Micronutrient supplementation including antioxidants, vitamin B, folic acid, and vitamin D wasalso provided. Glutamin as specific nutrient was delivered by 0.3 g/kg BW/day in 510 days. Results: improvement of clinical condition, functional capacity, and laboratoryparameters was observed in three patients, who could be discharged from hospitaland asked to come back for outpatient care. Their lengths of stay were 33 days, 70days, and 43 days, respectively. However, one patient experienced worsening ofcondition and died after 22 days of care in Intensive Care Unit (ICU). Conclusions: optimal nutritional support for severely burned patients withinhalation trauma and sepsis is necessary in order to improve healing process, as well as decrease morbidity and mortality. ;Background: severe burn trauma combined with inhalation injury initiates localand systemic response, resulting in various complications such as systemicinflammatory response syndrome (SIRS) and sepsis. These conditions stimulatehypercatabolic process, leading to the increase of nutrition requirement. Adequatenutritional support is necessary in order to control both inflammatory andmetabolic response, and also to improve healing process. To date, nutritionalrecommendations specific for severe burn trauma and critical illness have beenestablished. However, many problems including patient?s condition and lack ofresources exist, so optimal nutritional support that fits our settings was delivered.Method: this serial case focused on four severely burned patients caused byflame. Subjects with inhalation trauma and complications such as sepsis, multipleorgan dysfunction syndrome (MODS), and multiple organ failure (MOF) wereincluded in this study. Nutritional support was delivered according to clinicalconditions, patient?s tolerance, and laboratory findings. Early enteral nutrition was initiated within 2448 hours post burns, starting from 10 kcal/kg BW/day withintermittent gravity drip method. Nutrition was gradually increased in order to reach the target of energy for critically ill patients, which is 2025 kcal/kgBW/day in acute phase or 2530 kcal/kg BW/day in anabolic recovery phase. Xie Equation was used to calculate target of total energy for burned patient. Proteinrequirement was 1.52.0 g/kg BW/day. Lipid and carbohydrate given were2530% and 5565% from calorie intake, respectively. Micronutrient supplementation including antioxidants, vitamin B, folic acid, and vitamin D wasalso provided. Glutamin as specific nutrient was delivered by 0.3 g/kg BW/day in 510 days. Results: improvement of clinical condition, functional capacity, and laboratoryparameters was observed in three patients, who could be discharged from hospitaland asked to come back for outpatient care. Their lengths of stay were 33 days, 70days, and 43 days, respectively. However, one patient experienced worsening ofcondition and died after 22 days of care in Intensive Care Unit (ICU). Conclusions: optimal nutritional support for severely burned patients withinhalation trauma and sepsis is necessary in order to improve healing process, as well as decrease morbidity and mortality. |