Bacterial Burn Wound Infections and Susceptibility to Antibiotics in

Al-Thaowrah General Hospital, Hodeidah City, Yemen

 

Ahmed M. Al-kadassy1, Mohamed A. Suhail1*, Abdul Rahman S. Naji2,

Mawhoob N. O. Alkadasi2 and Abdulbaset A. Zaid3

1Department of Medical Laboratory ,Faculty of  Medical Science,  Hodiada  University, Yemen

2Department of Biology , Zabid Education Collage, Hodiadah University, Yemen

3Post Graduate and Research Center, Maulana Azad College, Aurangabad (MS)

*Corresponding Author E-mail: abdulbasitalzazai4@gmail.com

 

ABSTRACT:

Infection is a major cause of mortality in hospitalized burn patients. The present study was undertaken to determine burn infection bacterial etiological agents and their antimicrobial sensitive pattern, the influence of environmental conditions, and associated with burn infections. This study was conducted from March 2013 to September 2013 at Burns' Center and Surgery in Al-Thaowrah Hospital, Hodeidah, Yemen. A total of 85 swabs were collected.  Single isolates organisms were present in 73 % of cases and multiple isolates were noted in 27 % cases.  The frequency of Gram negative organisms was higher. The most common isolates were Pseudo.spp 37%, and Staph. aureus 35.2%. (54.1%) of patients were males and (45.9%) were females.

 

KEY WORDS: Bacterial burn  infections and susceptibility to antibiotics in Hodiada city, Yemen.

 


 

INTRODUCTION:

Infection is an important cause of morbidity and mortality in hospitalized burn patients. 75% of all deaths following thermal injuries are related to infections. Thermal injury destroys the physical skin barrier that normally prevents invasion of microorganisms. During the first week following thermal trauma, the affected sites are colonized with bacteria (1-5). Nosocomial infections is higher in burn patients due to various factors like nature of burn injury itself, immunocompromised status of the patient, age of the patient, extent of injury, and depth of burn in combination with microbial factors such as type and number of organisms, enzyme and toxin production, colonization of the burn wound site, systemic dissemination of the colonizing organisms (3,4).   Cross-infection results between different burn patients due to overcrowding in burn wards. Burn wound infections are largely hospital acquired and the infecting pathogens differ from one hospital to another (6,7).

 

The aim of this study was to determine the burn infection bacterial etiological agents and their antimicrobial sensitive pattern, the influence of environmental conditions, and associated with burn infections.

 

MATERIAL AND METHODS:

Study Material and methods:

Study setting and design:

This study was carried out during the period from March 2013 to February   2014. Samples were collected from patients admitted to the Burn center in Al-Thowrah hospital, Hodaidah city.

 

Study population:

A total of 85 patients suffering from burns were included in this study.

 

Sample Collection:

This study was carried out on 85 burn wound swabs were taken from burned patients, who presented invasive burn wound infection, from both sexes, and average age 1month -70 years, to burn unit in Al-Thawrah Hospital located in Hodeida  city from (13March 2013 to 10September 2013). These swabs were immersed in Amies transport medium. Swabs were taken and transferred promptly to the lab to be cultured. All swabs were inoculated into blood agar and MacConkey agar medium. Incubation was done at 37oC for 24 to 48h for isolation of aerobic bacteria. Patients' swabs were cultured at the Hodeidah University Lab.

 

Following incubation, the isolates bacteria from blood agar and MacConkey were identified by their colonial morphology on media ,Gram’s staining and biochemical tests (8-12). All isolates were subjected to antibiotics sensitivity testing. Antimicrobial susceptibility tests were done on Mueller-Hinton agar (Oxoid, England) using Disk Diffusion Susceptibility Testing (Kirby-Bauer Method). After incubation, the diameter of complete inhibition zones were measured using reflected light and ruler(9).The antimicrobial agents tested  were

Gram Negative

Antimicrobial discs

Potency

Abbreviation

Amikacin

30µg

AK

Amoxacilin

10µg

AX

Ciprofloxacin

5 µg

CPR

Meropenem

10 µg

MR

Cefoperazone

75µg

PZ

Cefotaxime

30µg

CFT

Ceftazidime

30 µg

CF

Ceftriaxone

30 µg

FR

Piperacillin

100 µg  

PIP

Chloramphenicol

30 µg

C

Gentamicin

10 µg

GM

Erythromycin

15 µg

ER

Ofloxacin

5µg

OF

 

Gram Positive

Antimicrobial discs

Potency

Abbreviation

Ciprofloxacin

5 µg

CPR

Clarithromycin

15μg

CL

Cefolexin

17μg

CX

Linezolid

30 µg

LINEZ

Amoxyclav

30µg

AMC

Netilmicin

10µg

NET

Cephalexin

30µg

CP

Oxacilin

1µg

OX

Amoxacilin

10µg

AX

Vancomycin

30 µg 

VM

Cefazolin

30µg

CZ

Erythromycin

15 µg

ER

Ceftazidime

30 µg

CF

 

Statistical analysis:  Statistical analysis was done using SPSS version 14 soft ware. Chi-square test was employed  to  compare  the  proportion  of  bacterial  isolates  with  patients’  age  and  comparison of antimicrobial sensitivity. P-value of < 0.05 was considered to indicate statistically significant difference.

 

RESULTS:

A total of 85 patients suffering from burn were included in this study. 46 patients which account for (54.1%) were males and 39 patients which account (45.9%) were females. Both single Gram positive and single Gram negative bacteria showed the same percentage of the total sample (36.5% each) with approximately equal percentage in both males and females. Mixed Gram positive and Gram negative bacteria were (27%) of the total sample predominantly in females (Table1). In comparison of single isolates to mixed, single isolates was nearly three times that of mixed (Table2).

 

Table 3: showed the distribution of causative agents according to Gram's stain among patients with infected burns in Al-Thawrah Hospital, Hodeidah city, Yemen. Both Gram positive bacteria and Gram negative bacteria were isolated equally (50% each) from the total sample. The most common isolate of Gram negative bacteria was Pseudomonas species (74.1%) which corresponds 37% of total single isolates and the most common isolate of Gram positive bacteria was Staphylococcus aureus (70.4%) which corresponds 35.2% of total single isolates.

 

According to tables 4-A and 4-B, different antibiotics were tested against the G-ve bacteria and G+ve bacteria. Most of the Gram-negative isolates obtained were found to be multidrug resistant. All Gram negative bacteria were belong to various members of the family Enterobacteriacea. Sensitivity of G-ve bacteria to antibiotic (Table (4-A)) showed that Ceftriaxone, Ciprofloxacin, and, Meropenem were the most effective drugs against Pseudomonas species, followed by Amikacin, Chloramphincol and Cefoperazon. Also sensitivity of GPB to antibiotic (Table (4-B)) showed that Vancomycin, CiprofloxacinI), ErythromycinI were the most effective drugs against Staph.aereus.



Table1: Distribution of Gram positive , Gram negative   , and Mixed infections in relation to gender  among patients with infected burns

Gender

Gram positive

%

Gram negative

%

Mixed

%

Total

%

Male

20

23.5%

18

21.2%

8

9.4%

46

54.1%

Female

11

13.0%

13

15.3%

15

17.6%

39

45.9%

Total

31

36.5%

31

36.5%

23

27%

85

100%

 

Table2: Comparison of single isolates to mixed among patients with infected burns

Bacterial growth

Number

Percentage

Single

62

73 %

Mixed

23

27 %

Total

85

100 %

 

Table3 :Distribution of causative agents according to Gram's stainamong patients with infected burns

Gram's stain

Name of bacteria

Frequency

Percentage

Gram negative

Pseudomonas species

40

74.1 %

Klebsilla  species

8

14.8 %

E.coli

1

1.9 %

Proteus spp

2

3.7 %

Citrobacter

3

5.5 %

Total

54

100 %

Gram positive

Staph. aureu

38

70.4 %

Staph. epidermides

8

14.8 %

Staph. saprophyticus

8

14.8 %

Total

54

100 %

 


 

Table (5) illustrated the distribution of Gram positive  and Gram negative bacteria according to gender among patients in burn's center, in  Al-Thawrah Hospital, Hodeidah city, Yemen. The males had higher rates of infection by Staph.aureus (18.5%) followed by Pseudomonas species (16.7%), while the females had higher rates of infection by Pseudomonas species (20.4%) followed by Staph.aureus (16.7%). Generally, the total infection in both sexes had the same percentage (50% each).

 

Table (6-A) it was evident the incidence of Gram negative infection show dominance of Pseudomonas species (74.1%)  of total infection with Gram negative bacteria while the remnant four Gram negative bacteria organisms show neglected ratios of infection except Klebsiella species. with 14.8%. The most infected age category with Gram negative bacteria is (11-20) years in which 16 patients were infected (29.6%) followed by the age category (21-30) years in which 13 patients were infected (24.1%) and then followed by the age category (1month-10 years) in which 12 patients were infected (22.2%). So the age from 1 month to 30 years correspond 76% of total infected patients with Gram negative bacteria.

 

Table (6-B) it was evident the incidence of Gram positive  bacteria infection show dominance of Staph.aureus, (70.4%) of the total infection with Gram positive  bacteria, while the remnant two Gram positive  bacteria organisms show equal ratio of infection 14.8% for Staph.epidermides and Staph.saprophyticus. The most infected age category with Gram positive  bacteria is (11-20) years in which 25 patients were infected (46.3%). The age from 1 month to 30 years correspond 76% of total infected patients with Gram positive  bacteria.

 

From the last two tables (6-A and 6-B), the most prominent infections were Pseudomonas species and Staph.aureus with Gram positive bacteria and Gram negative bacteria respectively. The most infected age is from 1 month to 30 years in both groups (Gram positive and Gram negative bacteria) and each correspond to 76%.  

 

Table (7-A) illustrates the distribution of the Gram negative ,Gram positive, and Mixed bacteria according to the general characteristics of the patients in the burn center, Al-Thawrah Hospital, Hodeidah city, Yemen. The patients with age category (11-20) years were the highest in infection by positive bacteria which account for 17.7%. Patients with age categories (11-20) and (21-30) years were infected by negative bacteria and mixed bacteria respectively (11.8% each). Regarding gender categories, males had higher infection than females by gram positive and negative bacteria 20(23.5%),18 (21.2%), respectively. However, females had higher mixed bacterial infection 15(17.6%). Married patients had higher infection with both Gram positive and negative bacteria 16 (18.8%), 17 (20%) respectively, while unmarried had higher mixed bacterial infection 13 (15.3%). Urbanized patients showed higher infections with Gram negative 22 (25.9%), and Gram positive bacteria 19 (22.4%). More than half of the sample were without work and had  different types of mentioned bacteria.

 


 

Table (4-A): Sensitivity of G-ve bacteria to antibiotic among patients

 

Pseudo. Spp  n=40

k. spp n=8

Proteus spp n=2

E.coli n=1

Citrobacter  n=3

Antibiotic

S

S

S

S

S

1-Amoxicilin2

1

6

0

0

0

2-Cefotaxim

2

0

1

0

0

3-Ceftriaxone

8

3

0

0

1

4-Amikacin

7

2

0

1

1

5- Gentamicin

1

0

0

0

0

6- Erythromycin

4

2

0

0

1

7-Chloramphincol

7

2

0

0

1

8- Ciprofloxacin

8

7

0

1

1

9- Cefoperazon

7

1

0

0

0

10-Ceftazidem

2

0

0

0

0

11-Meropenem

8

0

1

0

0

12-Ofloxcin

6

0

2

0

0

13-Pipracillin

3

0

0

0

0

Notes: Pseudo spp= Pseudomonas species , k. spp= Klebsiella species, E.coli= Escherichia coli, n=Number , S=sensitive.


Table (4-B): Sensitivity of G+ve bacteria to antibiotic among patients

Organism

S.

aereus

n=38

S. epidermidis

n=8

S.

saprophaticus

n=8

Antibiotic

S

S

S

1- Amoxicilin

3

2

3

2-Oxacillin

0

0

0

3-Cephalexine

0

1

3

4- Ciprofloxacin1

14

7

0

5- Erythromycin1

10

2

0

6- Vancomycin

16

6

3

7-Netilmycin

1

1

1

8-Clarythromycin

5

1

0

9-Amoxyclave

0

0

0

10-cefazolin

0

2

1

11-Ceftazedime

1

0

0

12-Cefolexin

2

0

1

13-Linezolid

8

1

6

Table (7-B) shows the distribution of the G-ve, G+ve, and Mixed bacteria according to the general characteristics of the patients' burns (degree of burn, cause of burn and site of infection) in the burn center, Al-Thawrah Hospital, Hodeidah city, Yemen. Patients with third degree burns were the most infected ones (64%) by different types of bacteria followed by those with second degree (35%). It was found that the most common causes of burns were boiling water and hot objects (37.6% and 32.9% respectively) and the most infected sites were the extremities (right leg (23.5%), right hand (17.6%), left hand (16.5%), and left leg (12.9%).

 

Table (5): Distribution of G+ve and G-ve according to gender  among patients

 

Male

Female

Total

N=28

%

N=26

%

N=54

%

Gram Positive Bacteria

Staph. aureus

20               

18.5%

18  

16.7%

38

35.2%

Staph. epidermides

4                   

3.7%

4

3.7%

8

7.4%

Staph. saprophyticus

4                   

3.7%

4                  

3.7%

8

7.4%

Total

28

25.9%

26

24.1%

54

50%

Gram Negative Bacteria

Pseudomonas species

18

16.7%

22

20.4%

40

37.1%

Klebsilla  species

5

4.6%

3                  

2.8%

8

7.4%

E.coli

0

0%

1

0.9%

1

0.9%

Proteus

1

0.9%

1

0.9%

2 

1.8%

Citrobacter

2 

1.8%

1

0.9%

3                  

2.8%

Total

26

24.1%

28

25.9%

54

50%

Grand total

54

50%

54

50%

108

100%

 

Table (6-A): Distribution of G-ve bacteria according to age among patients

Age

Pseud.spp.

N              %

Klebsiella

N                 %

E.coli

N                 %

Proteus

N             %

Citrobacter

N                 %

Total

N                 %

1m-10y

10            25%

1           12.5% 

1            100%       

0            0%

0                0%

12         22.2%

-20y

11         27.5%

2              25%

0                0%

1           50%

2           66.7%

16       29.63%

-30y

11         27.5% 

2              25%

0                0%

0            0%

0                0%

13       24.07%

-40y

5           12.5%

2              25%

0                0%

0             0%

0                0%

7         12.97%

-50y

1             2.5%

1           12.5%

0                0%

0             0%

0                0%

2             3.7%

-60y

1             2.5%

0               0%

0                0%

1           50%

0                0%

2             3.7%

-70y

1             2.5%

0               0%

0                0%

0             0%

1           33.3%

2             3.7%

Total

40         100%

8           100%

1           100%

2         100%

3           100%

54         100%

 

Table (6-B): Distribution of G+ve bacteria according to age  among patients

Age

Staph.aureus

N                          %

Staph.epidermides

N                          %

Staph.saprophyticus

N                          %

Total

N                          %

1m-10y

6                     15.8%

1                    12.5% 

1                    12.5% 

8                  14.8 %

-20y

18                   47.3%

2                       25%

5                     62.5%     

25                 46.3 %

-30y

6                     15.8%

1                    12.5% 

1                    12.5% 

8                    14.8 %

-40y

3                       7.9%

4                       50%     

1                    12.5% 

8                    14.8 %

-50y

2                       5.3%

0                         0%

0                          0%

2                       3.7%

-60y

3                       7.9%

0                         0%

0                          0%

3                       5.6%

-70y

0                         0%

0                         0%

0                          0%

0                          0%

Total

38                   100%

8                     100%

8                     100%

54                   100%

 

Table(7-A): Distribution of the G-ve, G+ve, and Mixed bacteria according to the general characteristics of the patients

 

Gram Positive

Gram Negative

Mixed

Total

X2

P-value

N =31

%

N =31

%

N=23

%

N =85

%

X2

p-value

Age

 

 

 

 

 

 

 

 

14.58

0.265

1m-10y

3

3.5

7

8.2

5

5.9

15

18

1.7616

0.4145

-20y

15

17.7

6

7.1

10

11.8

31

36

4.0068

0.0559

-30y

5

5.9

10

11.8

3

3.5

18

21

2.8890

0.0318

-40y

4

4.7

3

3.5

4

4.7

11

13

0.6072

0.1741

-50y

2

2.4

2

2.4

0

0.0

4

5

1.4839

0.3515

-60y

2

2.4

1

1.2

1

1.2

4

5

0.3513

0.3995

-70y

0

0.0

2

2.4

0

0.0

2

2

3.4839

0.1470

Gender

 

 

 

 

 

 

 

 

5.01

0.082

Male

20

23.5

18

21.2

8

9.4

46

54

2.2975

0.3170

Female

11

12.9

13

15.3

15

17.6

39

46

2.7098

0.0818

Martial statues

 

 

 

 

 

 

 

 

0.70

0.704

Unmarried

15

17.6

14

16.5

13

15.3

42

49

0.3552

0.8373

Married

16

18.8

17

20.0

10

11.8

43

51

0.3470

0.7039

Residence

 

 

 

 

 

 

 

 

5.65

0.059

Urban

19

22.4

22

25.9

9

10.6

50

59

2.3257

0.3126

Rural

12

14.1

9

10.6

14

16.5

35

41

3.3224

0.0594

Work history

 

 

 

 

 

 

 

 

10.16

0.118

Manual work

4

4.7

4

4.7

3

3.5

11

13

0.0003

0.9999

Student

11

12.9

6

7.1

8

9.4

25

29

1.6802

0.4316

Employee

5

5.9

1

1.2

0

0.0

6

7

5.8817

0.0228

No work

11

12.9

20

23.5

12

14.1

43

51

2.5982

0.0144

 

Table(7-B): Distribution of the G-ve, G+ve, and Mixed bacteria according to the general characteristics of the patients' burns

 

Gram Positive

Gram Negative

Mixed

Total

X2

P-value

 

No =31

%

No =31

%

No=23

%

No =85

%

 

 

Degree  of  burn

 

 

 

 

 

 

 

 

3.2426

0.5181

First  degree

1

1.2

0

0

0

0

1

1

1.7419

0.4185

Second  degree

11

12.9

13

15.3

6

7.1

30

35

0.9402

0.2616

Third  degree

19

22.4

18

21.2

17

20.0

54

64

0.5605

0.4722

Causes of burn

 

 

 

 

 

 

 

 

14.4485

0.4169

Hot Objects

13

15.3

9

10.6

6

7.1

28

32.9

1.2331

0.5398

Electrical

3

3.5

5

5.9

1

1.2

9

10.6

1.7691

0.2229

Chemical

0

0

2

2.4

2

2.4

4

4.7

2.4376

0.1221

Boiling water

10

11.8

12

14.1

10

11.8

32

37.6

0.4562

0.2353

Coolness

0

0

1

1.2

0

0

1

1.2

1.7419

0.3332

Kerosene

3

3.5

1

1.2

1

1.2

5

5.9

1.2230

0.2271

Petrol

2

2.4

0

0

3

3.5

5

5.9

3.8457

0.0793

Gas

0

0

1

1.2

0

0

1

1.2

1.7419

0.0612

Lightning

0

0

1

1.2

0

0

1

1.2

1.2331

0.5398

Site of infection

 

 

 

 

 

 

 

 

30.6416

0.0601

Head

1

1.18

2

2.35

1

1.18

4

4.7

0.3513

0.8389

Face

0

0

0

0

4

4.71

4

4.7

10.7826

0.0038

Neck

0

0

1

1.18

2

2.35

3

3.5

2.8415

0.0011

Right hand

5

5.88

4

4.71

6

7.06

15

17.6

1.3642

0.1221

Left hand

7

8.24

5

5.88

2

2.35

14

16.5

1.5490

0.2330

Chest

0

0

2

2.35

0

0

2

2.4

3.4839

0.0807

Abdominal

2

2.35

2

2.35

2

2.35

6

7.1

0.1197

0.1650

Back

4

4.71

1

1.18

0

0

5

5.9

4.3226

0.1085

Pubic

0

0

1

1.18

0

0

1

1.2

1.7419

0.0482

Right  leg

10

11.7

7

8.24

3

3.53

20

23.5

2.0905

0.1472

Left  leg

2

2.35

6

7.06

3

3.53

11

12.9

1.9944

0.1297


 

DISCUSSION:

In the current study, males (54.1%) were infected more than females (45.9%) which is nearly similar to the findings reported in Teiba Center for Burns Surgery in Al-Jumhory Hospital located in Sana'a city, Yemen,(7) which was found that burn wound infection in males (58%) higher than that in females (42%) as well as to another study done in Sana'a in which infected males were 76% and infected females were 24%.(17) This may be due to that males are exposed more to burns and wear loose fitting clothes like dhoti,

 

which catch fire easily also mostly restaurant workers are males engaged in cooking. However, in other study in India showed that burn infection in females (60%) was more than male (40%).(8). In this study as well as a study was done by Luterman, A., Dasco, C.C. and Curreri, P.W, 1986, it was found that the highest distribution of burn wound infection found within the age group 11-20 years.(5,9) On the other hand a study was done in Sana'a city showed that the highest distribution of burn wound infection found within the age group <10 years 84 (42%).(7) Murray, C., Hospenthal, D.R. (2008)(10) and the present study had similarity in the susceptibility to burns, degree of burns that infected, causes of the burns, and the most infected sites of burns. Burn wound surfaces are become colonized with microorganisms, gram-positive bacteria that survive the thermal insult, such as S. aureus located deep within sweat glands and hair follicles, heavily colonize the burn wound surface within first 48 hr.(18). In North America and Europe, acid burns are generally regarded as uncommon industrial accidents and they are rarely associated with assault.(19)Iran, found that 77 (64.2%) out of 120 burn infection patients were males while 43 (35.8%) were females. In Kuwait out of 1415 burn patients, 102 of them had developed clinically and microbiologically proven septicemia.(20). In this study and a study was done by Murray, C., Hospenthal, D.R. (2008)(10) showed that  Pseuodmonas species (37.1%) was the most commonly isolated bacteria among burn patients with burn wound infection followed by Staph.aeureus (35.2%), while some other studies showed Staph.aeureus was the most prevalent bacteria among burn patients.(7,11,12).

 

CONCLUSION:

A total of 85 patients suffering from burn were included in this study. 54.1% were males and 45.9% were females.   Both single Gram positive and single Gram negative bacteria showed the same percentage of the total sample (36.5% each) with approximately equal percentage in both males and females. Mixed Gram positive and Gram negative bacteria were (27%) of the total sample predominantly in females.  The most common causative agents of burn wound infection in burned patients treated at Burns Center Surgery in Al-Thaowrah Hospital during 13-3-2013 to 10-9-2013 were Pseudomonas species and Staphylococcus aureus. Pseudomonas species had higher sensitivity to Ceftriaxon, Ciprofloxacin and Meropenem. Staphylococcus aureus had higher sensitivity to Vancomycin, Ciprofloxacin and Erythromycin.

 

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Received on 31.05.2014          Accepted on 18.06.2014        

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Asian J. Pharm. Res. 4(2): April-June 2014; Page 72-77