DAMAGE CONTROL SURGERY (DCS) PROBLEMS ON SEVERE ABDOMINAL TRAUMA
(SAT) IN THE EMERGENCY INSTALLATION
Sabasdin
Harahap1, Aryono Djuned Pusponegoro2�
Department of
Surgery FKUI/Cipto Mangunkusumo Hospital Jakarta, Indonesia
[email protected],
[email protected]
ABSTRACT
Introduction: Based on the division of the
anatomical region of the body, the abdominal region is the third most
frequently traumatized region, which is about 8% of all trauma cases. At RSUPN
CM Jakarta, abdominal trauma ranks second after the head and neck region as a
cause of death due to trauma. This study aims to determine the problems in the
DCS action on the SAT. Provide objective data regarding issues in DCS actions
on SAT at the ER at the CM Hospital. Method: This study uses a
retrospective study method with a descriptive study. The number of samples used
is the total population observed. Result: 4 factors influencing
mortality from severe trauma, namely; (1). The degree of severity of the trauma,
(2). Host factor (host), (3). When definitive action is taken, and (4). Quality
of trauma care. Of the four factors, only factors 3 and 4 can be handled in the
ER of the CM Hospital, while factors 1 and 2 are factors beyond the hospital's
reach. Trauma management in pre-hospital care requires a more comprehensive
approach for medical personnel who assist patients and their families. Five of
the 6 cases carried out by DCS died. Whereas the Ps value of the 6 cases is
more than 50%. This can describe the condition of handling DCS in SAT patients
at CM Hospital is not good. Conclusion: The condition of DCS handling in
SAT cases is influenced by pre-hospital care, treatment in the ER, surgical
techniques and treatment in the ICU. Pre-hospital care for the 6 cases was very
slow, DCS decisions were not on site, operating techniques did not pay
attention to triad of death indicators and handling in the ICU was less
integrated with other departments.
Keyword: abdominal region, trauma, damage control surgery
Corresponding Author: Sabasdin
Harahap
E-mail: [email protected]
INTRODUCTION
In Indonesia, according to the 1991 Household Health
Survey, trauma is the most common cause of death compared to infectious
diseases and coronary heart disease. However, in the age group 15-25 years and
25-34 years, respectively, trauma ranks first and second (along with maternal
death) as the most frequent cause of death. It is estimated that as many as
50,000 people died from trauma in 1991 �(Pitt and Pusponegoro 2005). Based on data from the 2007 Indonesian Health
Profile, trauma cases ranked 6th, namely 347,345 cases/year in the top 10
outpatient cases in the Emergency Room (IGD) hospitals throughout Indonesia (Indonesia 2007).
According to Situmorang I's (2007) research at the CM
General Hospital, 35% of the 31 trauma cases that came to the Emergency Room
were found with hemorrhagic shock. The ratio of men and women is 5, 2: 1 (Situmorang I 2007). For comparison, in RSUP, dr. Sardjito, Yogyakarta
(2004), 82 cases of abdominal trauma underwent exploratory laparotomy, with a
male-to-female ratio of 4.47: 1, and most often found in the third decade of
age (Pramugyono 2003).
Based
on the anatomical division of the body, the abdominal region is the third most
frequently traumatized region, which is about 8% of all trauma cases (Jurkovich and Carrico
1997). In the CM Jakarta General Hospital, according to a
report by (Sidauruk M 2009), abdominal trauma ranks second after the head and
neck area as a cause of death due to trauma.
The abdomen is susceptible to trauma from penetrating
and blunt trauma due to compression, deceleration, and shear forces. The
exposure to various energies that may be received is extensive. There are
essential organs that are relatively unprotected and very rarely involved. one
organ. So the speed in diagnosing will reduce the morbidity rate (Fabian And Croce 1995). The organs most commonly affected are the spleen and
liver, which can cause hemorrhagic shock. Injuring a perforated organ will
result in intra-abdominal contamination, which can have serious consequences.
In various literature, it is often associated with severe abdominal injury
(severe abdominal trauma, SAT) and damage control surgery (DCS) (Parent et al., 2005). Damage Control Surgery is part of the advanced in-room
resuscitation of the Advanced Trauma Life Support (ATLS) system. The procedure
is an aggressive approach to break the chain of movement patterns of
physiological failure that leads to death (Kouraklis, Spirakos,
and Glinavou 2002).
This study aims to determine the problems in the DCS
action on the SAT. Provide objective data regarding problems in DCS action on
SAT in the ER CM Hospital.
METHOD
This
study uses a retrospective study method with a descriptive study. The number of
samples used is the total population observed. The sample data was obtained
from the morning watch report collection of the Department of Surgery
FKUI/RSUPN CM which was then traced to the medical records of OK IGD, HCU, and
ICU from January 1, 2007, to December 31, 2007. The data obtained were
processed using the Stata 10.0 software program.
The
data taken included gender, age, mechanism of trauma, length of time in the
incident until arriving at the ER, Injury Severity Score (ISS), Probability of
survival (Ps), organs involved, length of time in the ER until surgery,
duration of surgery, PT, aPTT, pH, temperature, amount of replacement infusion
fluid given during resuscitation and surgery, the volume of blood and plasma
during surgery and indications for use of Bogota bag as TAC and cause of death.
The data were processed using the Stata 10.0 software program and presented in
a systematic descriptive manner, structured in the form of narratives and
tables.
A.
Operational Limits
a. Severe Abdominal Trauma
Trauma or injury caused by mechanical agents hitting the
abdomen and other organs, which can lead to death due to direct organ damage or
bleeding. (AD, nd) .
b. Damage Control Surgery
A primary survey / initial assessment action was
followed by stop bleeding (packing, ligation) and stop contamination (clamps,
perforated bowel ligation) and the abdomen was covered with plastic (Bogota
bag) (AD 2004).
c.
Bogota
Bag
Sterile plastic bags to cover laparoscopic surgery
wounds, in this study the plastic bags used were urine bags.
d.
Laparotomy
An incision through the abdominal wall into the
abdominal cavity (AD, nd).
e.
Hemorrhagic
shock
Hypovolemic shock due to traumatic bleeding resulting
in blood volume depletion, resulting in inadequate tissue perfusion. In this
study hemorrhagic shock: bleeding > 30% blood volume (AD, nd).
f.
Injury
Severity Scale (ISS)
Scale the severity of trauma in each region (head and
neck, face, thorax, abdomen, pelvis, extremities, and body surface). The ISS is
calculated by squaring a maximum of 3 worst-hit regions. The higher the ISS,
the more severe the trauma. The maximum ISS is 25+25+25 = 75.
g.
Probability
Of Survival (PS)
It is calculated based on the TRISS (Trauma injury
severity score) formula. TRISS calculator software is available from http://www.sfar.org/scores2/triss2.html (Situmorang I 2007).
h.
Coagulopathy
Blood clotting disorders in which the PT or aPTT
values are elevated by more than 50%.
i.
Metabolic
Acidosis
Levels of lactic acid deposits as measured by blood
gas analysis (AGD); if blood pH < 7.
j.
Hypothermia
The core body temperature as measured by a thermometer
probe at the esophagogastric junction is below 37oC, where the temperature is
32o-36oC (mild hypothermia), 28o-32oC (moderate hypothermia), and <28oC
(severe hypothermia) (AD 2004).
Figure 1. Systematic research flow
RESULTS AND DISCUSSION
After retrospective
observation, 8 cases were found from the morning watch report collection of the
Department of Surgery FKUI/RSUPN CM, then traced to the medical records section
of the OK IGD, HCU, and ICU in the period January 1, 2007, to December 31,
2007. After searching, only 6 cases were obtained. with complete data, the
other two cases did not obtain complete data.
A total of 6 cases
evaluated consisted of 5 male patients and only 1 female patient. No
penetrating abdominal trauma mechanism was found, all with a blunt trauma
mechanism due to KLL on the highway. The age range is seen between 17 years to
48 years, with an average age of 32.17 years which is the productive age.
Table
1. Distribution of characteristics of sex, age, and trauma mechanism
|
Gender |
Age |
Trauma mechanism |
||||
|
L |
P |
Min |
Max |
Mean � SD |
Blunt |
see through |
|
5 |
1 |
17 |
48 |
32.17 � 5.75 |
6 |
- |
In table 1, it
can be seen that the minimum value of ISS is 24 while the maximum value is 41
and the average is 26. This value represents the severity score of the three
worst-hit regions in each case. Supposedly that all cases can live because
based on the Ps value, the minimum value is 90.7 and the average Ps value is
93. The 30-hour span was the longest time from the incident until the patient
arrived at the ED, although the average was 7.5 hours. After being traced from
the status data, information is obtained that the 2 longest times are; In the
first case, the patient only came to the clinic and due to cost issues and the
patient did not receive any complaints, it meant that the patient only came to
the hospital 30 hours after the incident. In the second case, the pre-hospital
time was 7 hours. This patient was referred from a hospital outside the city
for reasons of limited equipment. Meanwhile, the average time between patients
in the emergency room and DCS in the operating room is 3 hours and 50 minutes.
Meanwhile, the average length of operation performed is 3.5 hours.
Table 2. Distribution of patient characteristics
|
Case characteristics |
(n) |
Min |
Max |
Mean � SD |
|
Injury severity score (ISS) |
6 |
24 |
41 |
26.83 � 0.98 |
|
Probability of survival (Ps) |
6 |
90.7 |
95.4 |
93.45 � 0.68 |
|
Length of time
the incident arrived at the ER (hours) |
6 |
1:00 |
30:00 |
7:30 � 4:35 |
|
Length of time
in the ED until surgery (hours) |
6 |
1:00 |
10:00 |
3:50 � 1:24 |
|
Operation time
(hours) |
6 |
1:30 |
4:30 |
3:30 � 0:30 |
Table 2 shows
the distribution of mortality rates and the time interval between events and
death. Only 1 case was found alive after the DCS procedure, the remaining 5
cases died due to several causes of death
Table 3. Mortality after DCS
|
|
Survival |
|||||
|
|
Alive (n=1) |
Off (n=5) |
||||
|
Mr. O 19 years old |
Mrs. A 48 years
old |
Mr. T is 23 yrs
old |
Mr.Ag 40 th |
Mr. Tu 46 th |
Mr. G 17 th |
|
|
Dead time (days) |
|
H-7 |
H-8 |
H-7 |
H-7 |
H-9 |
Table 3 below
describes the characteristics of the data regarding the length of surgery
performed, and the triad of death which includes indicators of coagulopathy
(PT, aPTT), acidosis, and hypothermia. In addition, data regarding the amount
of fluid replacement and organ involvement were evaluated intraoperatively.
Three cases used Bogota bag as TAC and the other three cases directly with
primary closure. Table 4 also displays the causes of death of the 5 cases that
died.
Table
4. Distribution of characteristics of the duration of operation, the triad of
death, fluid resuscitation, organ involvement, TAC, and cause of death
|
No. (n=6) |
ID |
PT |
PTT |
pH |
T o C |
K (cc) |
P+F (cc) |
Organs involved |
TAC / indication |
Dead cause |
|
1. |
Mr. O 19 th |
19.6 |
78.2 |
7,208 |
34.4 |
4500 |
2500 |
Heart, lien |
+ packing |
|
|
2. |
Mrs. A 48 years old |
26.8 |
148.0 |
7,190 |
33.2 |
6500 |
2500 |
Your retroperitoneum, ileum, colon |
- |
Sepsis � GOM |
|
3. |
Mr. T is 23 yrs old |
24.4 |
136.6 |
7,160 |
34.6 |
6000 |
3000 |
Kidney, retroperitoneum |
+ packing |
SIRS � ARDS |
|
4. |
Mr.Ag 40th |
25.6 |
152.4 |
7,145 |
34 |
8500 |
3500 |
Retroperitoneum, perineum |
+ visceral edema |
SIRS � ARDS |
|
5. |
Mr. Tu 46th |
28.0 |
142.7 |
7,175 |
34.4 |
6500 |
3000 |
Pelvis, retroperitoneum, bladder |
- |
Sepsis � GOM |
|
6. |
Mr. G 17th |
30.8 |
160.9 |
7,140 |
33.6 |
7500 |
3000 |
Pancreas, duodenum, retroperitoneum |
- |
DIC - SIRS |
ToC ��� : �� Temperature
in degrees celsius
K�������� : �� Amount
of replacement infusion fluid during resuscitation and surgery
P+F���� : �� Total
volume of blood and plasma were given during surgery
GOM� : �� Multiple Organ Failure
SIRS��� : �� Systemic
Inflammatory Response Syndrome
The completeness of the expected data variables in
each study is the main requirement for the success of any study. In this study,
there were 2 cases where completeness of the data was not found, even though it
had been traced from various data sources in the Department of Surgery,
FKUI/RSUPN CM. Problems like this have often been encountered in previous
studies, especially research with retrospective case studies that used patient
registration records as a data source. This is a weakness of the medical record
system of RSUPN CM as a teaching and research hospital.
All cases in this study were of productive age (mean
age 32.17 years) with a history of traffic accidents where the ratio of men and
women was 5: 1. This is following various epidemiological literature on
abdominal trauma in urban areas, which often occurs in men. male, productive
age, and blunt abdominal trauma due to traffic accidents.
In contrast to rural areas, low to medium-income
countries, according to WHO (2005); have hospital system resources and
community-based emergency care that is not ready, road transportation to the
hospital is not smooth, and there are not many regulations regarding road
safety driving, the imbalance between urban and rural areas in accessing
pre-hospital emergency response systems and services hospital emergencies, as
well as income inequality, racial discrimination, and resource constraints.
Meanwhile, developed countries and urban areas have better preparedness for
dealing with trauma cases. This relates to the availability of transportation
from the scene to the hospital. Medical personnel is better prepared and
trained, and diagnostic, therapeutic and management instruments are more
comprehensive so that morbidity and mortality rates can be reduced (Hofman et al. 2005). Preventable trauma deaths (preventable trauma
deaths) decreased by 1-5% in trauma center hospitals compared to 30% in
non-trauma center hospitals (Fabian & Croce,
1995).
Indonesia does not have a trauma center hospital.
However, based on the 1971 American Medical Association (AMA) categorization,
the Emergency Room at RSUPN CM is included in the type I 58 category, namely
Comprehensive Emergency Service; The hospital shall be fully equipped,
prepared, and staffed to provide prompt, complete and advanced medical care for
all emergency including those requiring the most complex and specialized
service for adults, infant, and children, including newborn. It shall have a
capacity adequate to accommodate the direct and referred patient loads of the
region served and be capable of providing consultative support to professional
personnel of other hospitals and health facilities in the same region.
In providing help, the success of the ER depends on;
(1). The condition of the patient when he arrived at the ER, (2). The condition
of the emergency room building and (3). Quality and quantity of tools and
medicines, and (4). The abilities and skills of the officers (Hidayati 2020).
Situmorang (2007) reported an unexpected death rate of
trauma cases with hemorrhagic shock at RSUPN CM of 2.67%, a decrease compared
to the previous study by Dadik (1997) which was 6.6% (Situmorang I 2007). In another report by Sidauruk (2009), there were 28
cases of death from all trauma cases (448 cases) found in RSUPN CM throughout
2008 with a male-to-female ratio of 4.5: 1 (Sidauruk M 2009). In the same report, Sidauruk (2009) revealed that
there were 5 (1.1%) DCS cases in the period 1 January 2008 to 31 December 2008
while in the period 1 January 2002 to 30 September 2002 there were 23 (6.2%)
DCS cases. There is a pattern of decline in DCS cases from 2002 and has
remained relatively constant until recent years. However, when compared; in
2002 there were 14 (60%) cases alive from 23 cases and in 2008 of all cases
none were alive and the current evaluation there were 1 in 6 cases of living
DCS, it appears that the quantity of DCS cases decreased, as well as the
quality of DCS handling has also declined. The author agrees with Sidauruk that
there are two reasons to explain why the number of DCS cases in the ER of RSUPN
CM has decreased. First; The number of hospitals in Jakarta in 2002 was 109
hospitals. This number increased in 2008 to 139 hospitals. This increase in the
number of hospitals widens the distribution of existing cases. The second
reason; in December 2006 AGD 118 in Jakarta was no longer functioning and it is
likely that these patients died before arriving at the hospital. Before
December 2006 the response time of AGD was 118 to 10 minutes after receiving a
call for help. This is also evidenced when the number of KLL cases who died and
entered the Forensic Department of the FKUI/RSUPN CM increased (Sidauruk M 2009).
Conceptually 4 factors affect mortality from severe
trauma, namely; (1). The degree of severity of the trauma, (2). Host factor
(host), (3). When definitive action is taken and (4). Quality of trauma care.
Of the four factors, only factors 3 and 4 can be handled in the ER at RSUPN CM,
while factors 1 and 2 are factors beyond the reach of the hospital. (Soenjoto DA, 1997) . The Ps value predicts the life expectancy of trauma
patients. Based on the Ps value, life expectancy is grouped into 4 categories;
(1). Ps value below 50% of the final result died, is an expected death. (2).
The Ps value is below 50%, but the result is unexpected survival. (3). Ps value
more than 50% of the outcome of life, which is expected survival. (4). Ps value
is more than 50% but the final result is an unexpected death. In the evaluation
of the success of trauma treatment, the emphasis of the assessment was on
patients in groups 2 and 4. Group 2 showed success and group 4 indicated a
failure in the trauma management system. Here it was found that from the 6
cases the object of this study the minimum Ps value was 90.7 and the average
was 95.4 while the final result was only 1 patient who remained alive, meaning
that the quality of SAT treatment with DCS at CM Hospital was not good because
the final evaluation results were 5 out of 6 unexpected death cases, they died.
On the other hand, the average time from the scene to
the emergency room was 7.5 hours and the average time from the emergency
department to DCS in the operating room was 3 hours and 50 minutes. Of the 5
cases of death in this retrospective study, case I, a 48-year-old woman arrived
at the ER 1 hour after the incident in a state of shock, transported by public
transportation without a family, with no pre-hospital care medical records. The
resuscitation was successful, the condition is stable. Then surgery was
decided, and informed consent (a statement of approval for anesthesia/surgery)
was given by the family 2 hours later.
Case II, a 23-year-old man arrived at the ER 2 hours
after the incident in a state of shock, transported by public transportation,
also without his family. Performed resuscitation and operated on 1 hour later.
Case III, a 40-year-old man arrived at the ER 2.5
hours after the incident in a state of shock driven by public transportation
without a family. Resuscitation was carried out and operated on 1 hour later
after receiving informed consent from the family.
Case IV, a 46-year-old man arrived at the ER 7 hours
after the incident; The patient was referred from an out-of-town hospital for
reasons of limited equipment, without adequate pre-hospital care medical
documents. Perform resuscitation and insertion of C-clamp. Ten hours later the
shock returned so surgery was decided; After a colostomy was performed, there
was thrombosis of the right femoral artery and rupture of the right femoral
vein, so a DCS vascular system was performed in the inguinofemoral area by
ligating the right femoral vein.
Case V, a 17-year-old male arrived at the ER 30 hours
after the incident. After the incident the patient did not go directly to the
hospital but to the nearest clinic, then due to cost problems and not feeling
any complaints, it meant that the patient did not want to go to the hospital.
An abdominal CT scan was performed 4 hours after arriving in the ER (late; cost
reasons) and surgery was decided. The new operation can be carried out after 1
hour because the informed consent has only been given by the family. So the total time in the ER is 5 hours.
From the data above, it is clear that pre-hospital
care is very inadequate. Only one patient was brought by a medical officer, and
that was because he was referred from another hospital with incomplete medical
records. Next, the problem of handling in the ER is not as expected because the
leading decision maker, in front of the patient is the chief resident, some of
whom have not attended the DSTC course. Although the DSTC course has been held
since 2000, in reality not all chief residents have attended the course before
becoming chief residents. So that the content of the decisions taken is more
waiting for the assessment trainee from the results of the report given by the
chief resident than the real conditions when the patient arrives at the ER when
conducting the primary survey evaluation. This decision that is not on site
worsens the patient's condition which is getting closer to the triad of death
indicator.
In 1997, Dadik tried to collect various problems of
unexpected deaths at RSUPN CM (Soenjoto DA 1997). Generally, the problems found are hospital phase
problems, namely; Inadequate preparation of trauma management protocols,
including diagnosis, resuscitation techniques or surgical techniques,
anesthetic management, and postoperative care, or because of inadequate support
systems or facilities in the ER. At the time of Dadik's evaluation, AGD 118 was
still actively operating and there had not been a DSTC course for residents. On
the other hand, in this study, AGD 118 was not active and a DSTC course was
conducted for residents. What needs to be underlined is that the opportunity
for the DSTC course is not an absolute prerequisite for becoming a chief
resident, so it is not uncommon to find a resident who has become chief, but
has not attended the DSTC course.
The problem in the pre-hospital phase is that all
patients who arrive at the ER do not receive adequate management, this is
because the AGD 118 has not functioned since December 2006. It can be seen from
the decrease in the number of cases of multiple trauma
arriving at the ER at RSUPN CM consecutively from 2002 to 2006. and 2007, and
2008 respectively 208, 252, and 105, and the last 96 cases (Darmawan, 2014). In this study, none of the cases used AGD 118 as a
means of transportation from the scene to the ER, so it was concluded that the
pre-hospital care was not good.
The mechanism of trauma in all cases in this study was
blunt trauma due to KLL (table 1). Traffic accidents that can result in shock,
involve a lot of energy. The most organ involvement in this study was
retroperitoneum, which was present in 5 of 6 cases (table 4). The kinematics of
retroperitoneal blunt trauma are grouped into 3 namely; (1). The rapid
deceleration can result in the avulsion of major blood vessel branches and
intimal tears. (2). Direct anterior crush, can cause total tearing of large
blood vessels. (3). Fall from a height, multiple decelerations, and crush type.
Bach (2008) reported that in Denmark few surgeons have experience in performing
retroperitoneal packing in cases of massive bleeding because most are reluctant
to do so. Based on these considerations, they conducted training on how to do
retroperitoneal packing and the results can increase the effectiveness of DCS
success (Bach et al. 2008). At RSUPN CM, retroperitoneal packing is part of the
DSTC course that has been conducted since 2000.
From table 4, it can be seen that the triad of death
indicators has been found in all cases. In the first case, Mr. O has been found
coagulopathy, acidosis, and hypothermia. Intraoperative packing was done and
TAC was done with a Bogota bag. The patient can live. Compared to the other 5
cases, the administration of fluid replacement as resuscitation, in the case of
Mr. The minimum O is 7,000 ml. The other five cases received higher mean fluid
resuscitation, which was 10,000 ml. The amount of fluid and blood for
resuscitation is difficult to predict in the initial evaluation so it is more
important to assess the resuscitation response and oxygenation of the
end-organs. At the cellular level, anaerobic metabolism occurs when perfusion
and oxygenation are inadequate and produces lactic acid as an end product.
Lactic acid will cause metabolic acidosis and lead to damage to the integrity
of cell membranes. The ultimate goal of resuscitation is to achieve adequate
organ perfusion, tissue oxygenation, and good cellular function, i.e. when oxygen deficiency is met, acidosis is corrected
and aerobic metabolism occurs again. In ATLS the success of fluid resuscitation
is assessed by urine production. If the resuscitation fluid is given in excess,
the fluid will come out of the capillaries because of the increased capillary
permeability due to the inflammatory reaction of the trauma response. The
excess fluid received will cause a shift of intravascular fluid to
extravascular and occupy loose connective tissue such as lungs and soft
tissues. Furthermore, pulmonary edema occurs, cardiac preload will decrease,
splanchnic hypoperfusion, kidney and liver gain weight and will fall in GOM
conditions. (Sagraves et al., 2006)
.
Higher PT and aPTT elevations and lower acidosis
rates, although the temperature in all cases was classified as mild
hypothermia. It can be seen that the higher the increase in PT and aPTT and the
lower the acidity level, the worse the patient's condition. Aoki (2001)
predicts that if you are unable to correct the pH to more than 7.21 and the
aPTT is more than 78.7 at the initial DCS, the mortality rate will increase to
100% (Sugrue, D'Amours, and
Joshipura 2004). According to the DSTC concept, before the above
laboratory parameters appear, the operation must be stopped and the patient
brought to the ICU to restore physiological conditions to prepare for the next
stage of definitive surgery. But what has happened is that only 2 cases were
discontinued within 90 minutes, the rest over 2 hours. The average length of
operation time is 3.5 hours. Two factors stand out in this regard, namely;
human factors and non-human factors (facilities and infrastructure) as
previously described which are summarized in Dadik's research (1997). Next in
ICU treatment, the thing that must be done is correcting acidosis, which is to
return anaerobic metabolism to aerobic metabolism by providing replacement
fluid resuscitation that is warmed until tissue perfusion is achieved and
oxygen delivery reaches the cellular level. Simultaneously rewarming is carried
out to increase the core temperature. To treat coagulopathy, blood clotting
components can be given. The problem in the ICU is that it cannot intervene in
such a way because the ICU care authority is controlled by the anesthesiologist
team. Meanwhile, the anesthesia team of FKUI/RSUPN CM has not participated in
the DSTC course. So sometimes there are different perspectives on the handling
of DSTC in stage II (ICU stage). In practice, replacement fluid resuscitation
in the ICU is never warmed and rewarming is rarely attempted. The deaths in the
five cases above occurred in the ICU after the third phase of DCS. The optimization
of the second phase in the ICU has not met the standards expected by the DSTC,
because the authority of the surgical team cannot fully reach the management in
the ICU.
If the quality of pre-hospital trauma management
improves, death will no longer occur in the pre-hospital and emergency
department, but more trauma cases die in the ICU or post-ICU ward due to
multiple organ failure (GOM). According to the literature, this figure can
reach 30% to 100% and the cause is delayed or incomplete resuscitation.
Hestitoto (1996) found that the mortality rate of trauma patients due to GOM in
RSUPNCM reached 67% in 1995. Yadi (1997) reported excess fluid after surgery in
trauma patients at RSUPNCM. Patients were divided into 2 groups. Group I
received excess fluid of more than 10,000 ml (24 patients) and group II
received excess fluid of fewer than 10,000 ml (18 patients). Of all the
patients, eighteen died. Group, I had a 6 x higher risk of death than group II.
And if there are 2 or 3 indicators of the intraoperative triad of death, the
risk of death increases to 28 times higher (AD 2004).
However, the case in Jakarta is different. Where only
a few cases of trauma due to KLL arrive at the ER. Pusponegoro report (1993),
in 1991 at the FKUI/RSCM morgue there were 1000 deaths due to KLL. At the same
time, according to data from the Traffic Police (Plants), there were 268 deaths
due to KLL. 732 patients died on the way to the hospital or in the hospital due
to inadequate management (Pusponegoro and Sujudi
2016).
The most deaths in DCS cases handled in this study
occurred on H-7 due to SIRS and GOM. In a study at RSUPN CM from December 1995
to November 1996, it was found that hemorrhagic shock had an important role in
the onset of the systemic inflammatory response syndrome (SIRS) and both were
associated with death due to GOM. Djan (1997), in his research also found that
the time factor between the incident and the time of arrival at the ER,
resuscitation with blood and fluids, ISS and duration of surgery were
significant risk factors that could lead to GOM (AD 2004).
In this study, the Bogota bag was used as TAC in 3
cases. Two of them died. Two cases of using the Bogota bag indicated the
presence of intra-abdominal packing for the need for a "re-look
laparotomy", a plan to return to the operating room to evaluate the DCS
management that had been carried out, and definitive surgery and in one other
case to avoid the increase in intra-abdominal pressure caused by edema.
visceral.
The choice of TAC with Bogota bag by the operator is
rational because it is very effective and safe (Kirshtein et al. 2007). Taviloglu (2003) recommends the Bogota bag for DCS
because it is inexpensive, practical, easy to obtain and fast in the
application, transparent so that it can monitor the condition of
intra-abdominal organs during the resuscitation phase, and can be periodically
exchanged if needed (Myers & Latenser,
2002) (Kaplan et al. 2005). The function of the Bogota bag also retains body
heat, protect visceral organs from evaporation
("entero-atmospheric-fistulas"), protect from direct mechanical
injury, infection, and fluid loss, and is non-irritating (MacLean et al., 2008). (Myers and Latenser
2002). Another advantage of the Bogota bag is that the
volume of the abdominal cavity can be controlled to prevent an increase in
intra-abdominal pressure and thus ACS can be avoided (Kaplan 2004).
CONCLUSION
Indonesia does not yet have a trauma
center hospital. However, based on the categorization of the American Medical
Association (AMA) in 1971, the Emergency Installation of RSUPN CM is included
in the type I 58 category, namely Comprehensive Emergency Services; Homes are
fully equipped, groomed and staffed to provide prompt, complete and
state-of-the-art medical care for all emergencies including those requiring the
most complex and specialized services for adults, infants and children,
including newborns. Therefore, trauma management in pre-hospital care requires
a more comprehensive approach, both for medical personnel who provide
assistance, patients, and their families. Five of the 6 cases carried out by
DCS died. While the Ps value of the 6 cases is more than 50%. This can describe
the condition of DCS handling in SAT patients at CM Hospital which is not good
even though it is included in. The condition of DCS handling in SAT cases is
influenced by pre-hospital care, treatment in the ER, surgical techniques, and
treatment in the ICU. Pre-hospital care for 6 cases was very slow, DCS
decisions were not in place, surgical techniques did not pay attention to the
triad of indicators of mortality and ICU management was not integrated with
other departments.
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