Evaluation of The Role of Fecal Microbiota Transplantation in The Management of Ulcerative Colitis in Egyptian Patients

Document Type : Original Article

Authors

1 dep of hepatogastroentreology and infectious diseases faculty of medicine Cairo Egypt

2 Departments of Hepatology, Gastroenterology and Infectious Diseases, Faculty of Medicine, Al-Azhar University, Cairo, Egypt

Abstract

Background and Aims: Fecal Microbiota Transplantation (FMT) is a novel form of therapeutic microbial manipulation aims to restore the intestinal microbiota in diseased individuals by transferring intestinal microbiota of healthy donors. We aimed to establish the efficacy of, multi donor, fecal microbiota transplantation in active ulcerative colitis(UC) in Egyptian patients.
Subjects and Methods: known UC patients (n-50) were divided in two groups, Group one included 25 patients who treated with medical treatment alone and then follow up was done for 24 weeks. Group two included 25 patients who treated with medical treatment and underwent FMT via complete colonoscopy every three weeks until the 9th week and then follow up was done for the24th week by clinical picture, laboratory investigation ,complete colonoscopy at 0, 3, 6, 9, 18 and 24 weeks of study.
Results: We found statistically significant difference between both groups as regard clinical remission(reduction in mayo score≤2) was achieved in 18(72%)patients of group II compared to only 5(20%) patients of group I achieved clinical remission p value(0.001) and statistically significant difference between both groups as reduction in leucocytic count which is more prominent in group II(5.8) rather than group I(6.2) p value (0.008) and statistically significant difference between both groups as improvement in anemia which is better in group II(12.4) than group I(11.9) p value (0.027).
Conclusion: FMT appears to be effective for induction of remission in UC, Further studies are needed to explore its feasibility, efficacy and safety as a maintenance agent.

Highlights

                 INTRODUCTION

 

 

 

Ulcerative colitis  (UC)  is  a  chronic,  relapsing  and remitting,    inflammatory    disease    of    the    colon occurring   at   the   interface   between   the   luminal contents    and    the    mucosal    immune    system.1

 

Although  Most of the treatments for UC  target the immune  system,  number  of  patients  continue  to have inadequate disease control.2The gut microbiota in healthy individuals is known to  provide a number of health  benefits to  the host, relating to pathogen protection, nutrition, metabolism,  and  the  immune  system.3   The  role  of the  gut  flora  in  the  pathogenesis  of  Inflamatory bowel    disease    (IBD)    has    been    increasingly investigated,  and  it  is  now  clear  that  a  “dysbiosis" which    is    an    unfavorable    alteration    of    the composition  and  function  of  the  gut  microbiota, exists  in  IBD  that  possibly  leads  to  an  abnormal immune   response   which   alters   host−microbiota interaction and the host immune system.3 Due to the pro-inflammatory role of dysbiosis, fecal microbiota transplantation (FMT) has been recently advocated   as   a   possible   additional   measure   to improve the outcome of IBD. FMT is the transfer of  fecal  material containing  bacteria  and  natural antibacterial   from   a   healthy   individual   into   a diseased recipient. Previous terms for the procedure include   fecal   bacteriotherapy,   fecal   transfusion, fecal  transplant,  stool  transplant,  fecal  enema,  and human    probiotic    infusion    (HPI).    Because the procedure  involves  the  complete  restoration  of  the entire  fecal  microbiota,  not  just  a  single  agent  or combination  of  agents,  these  terms  have  now been replaced    by    the    new    term    fecal    microbiota transplantation.5  FMT has been clinically adapted to recurrent  Clostridium difficile  infection  (CDI),  and the  efficacy  of  FMT  for  CDI  has  been  established with  a  high  cure  rate  of  >90%  in  clinical  trials.6 Number of studies, including randomized controlled trials,    systematic    reviews,    and    meta-analyses suggest  that  FMT  is  effective  in  the  treatment  of patients with active UC.7

 

 

 

 

 

 

 

 

 

 

SUBJECT AND METHODS

 

 

 

 

 

 

 

 

 

 

 

 

A  case  control  study  was  carried  out  to  find  the efficacy of FMT  in  patients  with  ulcerative  colitis. This   study   was   conducted   on   50   patients   who fulfilling the designed inclusion criteria.  The study was carried out from Outpatient Clinic and Inpatient Units   of   Hepatogastroenterology   and   Infectious Diseases   department,   Faculty   of   Medicine,   Al- Azhar University Hospitals (Al-Hussein  &  Sayed Galal Hospitals) from May 2016 to May 2018 .

 

We included Egyptian patients, age ≥18 years with active UC patients confirmed diagnosis by using conventional clinical, endoscopic, radiological         and histopathological criteria after informed consent was taken.

 

We excluded patients with indeterminate    colitis,    Major    comorbid    chronic disease  eg  CLD,  a  history  of  previous  malignant diseases,   Pregnancy,   Irritable   bowel   syndrome, History of major gastrointestinal surgical procedures especialy resection  anastomosis  operation,  Recent antibiotic use  (the  last  two  weeks)  and  Patients refuse to participate in the study. Donors: Age ≥18 years, no antibiotic therapy within the past

3 months, Negative history for intestinal diseases or recent   gastrointestinal   infections,   autoimmune  or other  immune-mediated  diseases,  or  any  kind  of malignancies,  Chronic  hepatitis  B  and  C,  human immunodeficiency    virus,    cytomegalovirus,    and syphilis were excluded.    Preparation of Donor Stool: Donors   underwent mild   colonic   lavage   using polyethylene glycol before stools were collected in special vessels, the stool weighing 50 to 100 g was diluted with sterile normal saline (200–350 mL) and filtered through sterile gauze twice to remove crude components.  A  total  of  300  to  500  mL  of  the extracted     suspension     containing     the     donor’s intestinal flora was placed into 20-mL syringes. An aliquot  of  the  original  donor  stool  was  frozen  at enrollment  for  further  analysis  of  the  transferred microbiota. alone (oral 5-aminosalicylates (3 grams    per    day)    until    activity    subsided    then maintenance  dose  500  mg  twice  daily)  and  follow up was done for the 24th week of study and Group II  include  25  patients  who  treated  with  medical treatment    and    underwent    FMT    via    complete colonoscopy every three weeks until the ninth week and  then  follow up  was done for the 24th  week of study.

 

Follow  up  of  the  patients  were  done  by  clinical evaluation,       laboratory       investigations       and colonoscopy at 0, 3, 6, 9, 18 and 24 weeks of study and     measuring     endoscopic     disease     activity according  Mayo  clinic  score  for  activity  index  for patients of UC.

 

Statistical analysis:

Data  were  analyzed  using  Statistical  Program  for Social  Science  (SPSS)  version  15.0.    Quantitative data were expressed as  mean ±  standard  deviation (SD). Qualitative data were expressed as frequency and percentage.8

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 


RESULTS

 

 

 

 

Variables                                                                                 Group I (N = 25)                Group II (N = 25)                   P-value

 

Proctosigmoiditis                 3                 12%              2                    8%

 

Disease extension


Lt sided colitis                  20                80%             22                  88% Pan-colitis                      2                  8%               1                    4%


0.73 NS

 

 

Table 1: comparison between studied groups as regard extension of disease

 

 

                   Group I

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Hb (g/dl)

Mean

9.6

9.8

10.2

10.4

10.9

11.9

< 0.001 HS

±SD

0.5

0.5

0.5

0.5

0.6

0.6

WBCs (x103/cmm)

Mean

8.4

8.9

8.0

7.3

6.8

6.2

< 0.001 HS

±SD

1.0

0.5

0.4

0.4

0.4

0.3

ESR (mm/hour)

Mean

35.2

29.9

24.6

20.5

10.2

8.2

< 0.001 HS

±SD

7.0

5.9

4.9

4.0

2.0

1.5

CRP (mg/dl)

Mean

29.8

19.4

13.1

10.5

5.1

3.0

< 0.001 HS

±SD

5.3

3.4

2.6

2.0

1.1

0.5

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Table 2: comparison between laboratory data follows up in group I.HS: p-value < 0.001 is considered highly significant

 

 

 

 

                             Group II

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Hb (g/dl)

Mean

9.4

9.8

10.4

10.7

11.1

12.4

< 0.001 HS

±SD

0.5

0.5

0.6

0.6

0.6

0.7

WBCs (x103/cmm)

Mean

8.3

8.7

7.8

7.1

6.6

5.8

< 0.001 HS

±SD

1.1

0.5

0.5

0.6

0.5

0.7

ESR (mm/hour)

Mean

33.8

28.7

22.7

18.5

9.1

7.5

< 0.001 HS

±SD

7.5

6.4

5.1

4.0

2.0

1.7

CRP (mg/dl)

Mean

30.3

19.7

10.9

9.7

4.6

2.7

< 0.001 HS

±SD

6.1

3.9

2.4

1.8

1.0

0.6

 

                                                                                       

HS: p-value < 0.001 is considered highly significant.

Table 3: comparison between laboratory data follows up in group II.

 

 

 

 

            Group I

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Stool frequency

0

0

0%

0

0%

0

0%

2

8%

5

20%

11

44%

< 0.001

HS

1

0

0%

0

0%

4

16%

6

24%

10

40%

4

16%

2

0

0%

4

16%

7

28%

7

28%

6

24%

10

40%

3

25

100%

21

84%

14

56%

10

40%

4

16%

0

0%

Rectal Bleeding

0

0

0%

0

0%

0

0%

1

4%

4

16%

8

32%

< 0.001

HS

1

0

0%

0

0%

3

12%

6

24%

6

24%

7

28%

2

0

0%

3

12%

8

32%

6

24%

7

28%

7

28%

3

25

100%

22

88%

14

56%

12

48%

8

32%

3

12%

Mucosal app. At endoscope

0

0

0%

0

0%

0

0%

2

8%

5

20%

10

40%

< 0.001

HS

1

0

0%

0

0%

4

16%

6

24%

10

40%

3

12%

2

0

0%

6

24%

10

40%

11

44%

6

24%

11

44%

3

25

100%

19

76%

11

44%

6

24%

4

16%

1

4%

Physician score

0

0

0%

0

0%

0

0%

2

8%

5

20%

9

36%

< 0.001

HS

1

0

0%

0

0%

4

16%

4

16%

5

20%

5

20%

2

0

0%

5

20%

7

28%

4

16%

7

28%

8

32%

3

25

100%

20

80%

14

56%

15

60%

8

32%

3

12%

Total

No Resp.

25

100%

24

96%

13

52%

9

36%

2

8%

0

0%

< 0.001

HS

Response

0

0%

1

4%

12

48%

16

64%

22

88%

20

80%

Remission

0

0%

0

0%

0

0%

0

0%

1

4%

5

20%

 

HS: p-value < 0.001 is considered highly significant.

Table 4: comparison between Mayo score follow up in group I.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Group II

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Stool frequency

0

0

0%

0

0%

0

0%

4

16%

12

48%

19

76%

< 0.001

HS

1

0

0%

0

0%

6

24%

8

32%

11

44%

5

20%

2

0

0%

7

28%

11

44%

10

40%

1

4%

1

4%

3

25

100%

18

72%

8

32%

3

12%

1

4%

0

0%

Rectal Bleeding

0

0

0%

0

0%

0

0%

4

16%

10

40%

16

64%

< 0.001

HS

1

0

0%

0

0%

5

20%

8

32%

8

32%

7

28%

2

0

0%

6

24%

10

40%

10

40%

7

28%

2

8%

3

25

100%

19

76%

10

40%

3

12%

0

0%

0

0%

Mucosal app. At endoscope

0

0

0%

0

0%

0

0%

4

16%

12

48%

17

68%

< 0.001

HS

1

0

0%

0

0%

7

28%

9

36%

11

44%

6

24%

2

0

0%

9

36%

10

40%

10

40%

1

4%

2

8%

3

25

100%

16

64%

8

32%

2

8%

1

4%

0

0%

Physician score

0

0

0%

0

0%

0

0%

4

16%

9

36%

19

76%

< 0.001

HS

1

0

0%

0

0%

6

24%

8

32%

8

32%

2

8%

2

0

0%

7

28%

11

44%

9

36%

7

28%

4

16%

3

25

100%

18

72%

8

32%

4

16%

1

4%

0

0%

Total

No Resp.

25

100%

20

80%

7

28%

1

4%

0

0%

0

0%

< 0.001

HS

Response

0

0%

5

20%

18

72%

23

92%

15

60%

7

28%

Remission

0

0%

0

0%

0

0%

1

4%

10

40%

18

72%

 

 

 

 

 

HS: p-value < 0.001 is considered highly significant.

Table 5: comparison between Mayo score follow up in group II.


 

 

 

 

DISCUSSION

 

 

Fecal microbiota transplantation seems beneficial and safe for treatment of active UC based on the results of this study. As regard patients preparation we use bowel lavage with poly ethylene glycol and we did not use antibiotics before FMT as done by the four Randomized Clinical Trials (RCT)  Paramsothy9 et al, Rossen10 et al , Moayyedi11 et al and Costello7 et al  and other studies used antibiotics before FMT include Wei et al 12 who used Vancomycin 500 mg bd 3 days before FMT ,Ishikawa13 et al who used Amoxicillin (1500mg/d),and metronidazole (750 mg/d) and Angelberger14 et al who used Metronidazole 5-10 days before FMT.

 

Although the concept of adjuvant interventions, such as bowel lavage or pretreatment antibiotics, to decrease the bacterial burden and enable healthy microbial engraftment in the host has been speculated, it may also interfere with the function of the new microbiota.15

In our study we use of multiple donors (8-10) who un related to patients as done by Paramsothy et al 9 who used (3-7) donors and Costello et al who used (3-4)

 

 

 

 

 

 

 

donors un related to patients on both studies.Un like  Moayyedi11 et al and Rossen10 et al who used single donor for fecal microbiota transplantation infusion. It was initially considered that related donors. might lead to a better tolerance of FMT. However, the relatives of IBD patients have been recently demonstrated to possibly have themselves gut dysbiosis.16 Multi donor fecal microbiota transplantation infusions were utilized in our study, both to ensure an adequate supply of infusions for fecal microbiota transplantation and to minimize the possibility of patients receiving only therapeutically ineffective donor stool.

 

In our study the amount of stool was (50 -100) gm. For each fecal microbiota transplantation with total amount reaching (200-400) gm at the end of study. This amount of stool was similar to Rossen10 et al who used 120 gm of stool per week and Costello7 et al who used 100gm of stool, per week, and disagree with paramsothy9 et al who used the most intensive amount of stool who used (187.5) gm of stool per week for 8 weeks and moayyedi11 et al who used amount of (8.3) gm of stool along the study.

 

In  our  study  we  use  frozen  donor  stool  from  de- identified,   unrelated   healthy  donors   as   done   by Paramsothy9  et al and Costello7  et al  who used the same method of processing. Other studies including Rossen10  et al and moayeddi11  et al who used fresh stool from single donor, Stool processed aerobically in   our   study   as   done   by   Moayyedi11     et   al, Paramsothy9    et   al   and   Rossen10    et   al   un   like Costello7  et al the only study in which donors stool processed      anaerobically      without      significant differences between studies, so it seems that neither anaerobic vs aerobic stool preparation, nor fresh or frozen stool, significantly influences the efficacy of FMT.17

 

In  our  study  we  used  colonoscopy  as  a  route  for delivery of fecal microbiota as done by Paramsothy9 et al  and  Costello7  et al  who  used  colonoscopy for microbiota    transplantation,    other    studies    using different routes were done by Moayyedi11  et al who used retention enema and Rossen10  et al who used naso  duodenal  tube  as  a  route  of  delivery  of  fecal microbioa.

 

In  our  study  we  use  of  colonoscopy to  ensure  that large quantity of stool delivered and  to  ensure that microbiota reaching the ileum and right colon, other studies used retention enemas explained that enemas are less expensive and safer to administer and more practical than colonoscopy.11

 

As  to  the  administration  route,  in  agreement  with studies who  used  colonoscopy   reported  a possible increased   benefit   by   using   the   lower   route   of administration  in  subgroup  analyses,  it  has  been speculated   that   the   upper   gastrointestinal   route could   interfere   with   the   activity  of   some   FMT components   before   they   reach   the   colon   (since gastric  acid  can  damage  Bacteroidetes),  However, many  bacteria  belonging  to  the  Firmicutes  phylum require  an  upper  GI  tract  transit  in  order  to  be activated,  supporting  a  possible  advantage  of  the upper route.18

 

 

In  our  study  the  duration  of  FMT  was  9  weeks  of transplantation(colonoscopy   was   done   and   FMT was done at 0,3,6,9 weeks of study ) and follow up was  done  up  to  the  24th  week  of  study,  Similar duration was used by paramsothy9  et al who had the duration    of    8    week    of    transplantation    and Moayyedi11   et  al  demonstrated  efficacy  of  FMT over placebo for  7 weeks, other studies  used short duration    include    Rossen10     et    al    demonstrated efficacy  of  FMT  over  placebo  for    6  weeks  and Costello7  et al who used the shortest duration of 3- dose,   1-week   of   transfusion.   The   duration   and intensity    of    faecal    microbiota    transplantation therapy might need to be individualized    treatment once  a  week  could  be  effective  in  some  patients whereas more intensive therapy might be needed in others.

 

 

Both groups start  with anemia HB (9.6) in group I and  (9.4)  in  group  II  then  improvement  start  to develop by the third week HB (9.8) on both groups and continue along the 6th week, the 9th week and the18th week, By the week 24 improvement in HB is more significant in group II HB (12.4) compared to  (11.9)  in  group  I  with  statistically  significant difference between both groups P value (0.027).

 

 

Both  groups  start  with  leucocytic  count  (8.4)  in group  I  and  (8.3)  in  group  II  with  no  statistically significant  difference  between  both  groups  II  then improvement start to develop by the third week on both  groups  and  continue  along  the  6th  week,  the 9th   week   and   the18th   week,   By   the   week   24 reduction in leucocytic count is more significant in group II HB (5.8) compared to (6.2) in group I with statistically   significant   difference   between   both groups P value (0.008).

 

Patients  of  both  groups  start  with  high  ESR  level (35.3)   in   group   I   and   (33.8)   in   group   II   then reduction in ESR achieved on both groups along the study,  By  the  24th  week  ESR  become  normal  on both groups (8.2) in group I and (7.5) in group II.

 

Patients  of  both  groups  start  with  high  CRP  level (29.8)   in   group   I   and   (30.3)   in   group   II   then reduction in ESR achieved on both groups along the study,  By  the  24th  week  CRP  become  normal  on both groups (3) in group I and (2,7) in group II. The clinical  response  is  defined  as  reduction  in  mayo score equal or less than three points from base line score.  The  remission  is  defined  as  a  resolution  of clinical   symptoms,   including   cessation   of   rectal bleeding  and  improvement  in  bowel  habits  (total mayo score equal or less than 2).

 

At   the   start   of   study   both   groups   were   in exacerbation (mayo score was 12).  At  the  third week  both  groups  start  to  improve  with  where  4% (1/25)   of   patients   of   group   I   achieved   clinical response  and  20%  (5/25)  of  patients  of  group  II achieved    clinical    response    and    no    remission achieved   on   both   groups   with   no   statistically significant  difference  between  both  groups.  By  the 6th  week  of  study  more  patients  of  both  groups achieved  clinical  response  where  72%(18/25)  of patients of group II become responsive to treatment and 48%(12/25) of patients of group I responsive to treatment as regard reduction in mayo score to (9.4) in  group  I  compared  to  (8.4)  reduction  in  mayo score  in  group  II  with  no  statistically  significant difference  between  both  groups.  By  the  9th  week 92% (23/25) of patients of group II achieved clinical response  compared  to  64%(16/25)  and  one  patient of   group   II   (4%)   achieved   clinical   remission (reduction  mayo  score  to  equal  or  less  than  two) with no remission achieved in group I. By the 18th week  of study 40%  (10/25) of patients  of group  II achieved clinical remission and only one patient of group  I  achieved  clinical  remission.  At  the  end  of the study by the 24th week 72% (18/25) of patients of  group  II  achieved  clinical  remission  and  only 20%(5/25)  of  patients  of  group  I  achieved clinical remission.

 

The end result of this study agree with paramsothy9

et al   in   which   remission   induction   achieved   in 44%(18/41)   and   Costello7    et   al   where   is   50% (19/38)  achieved  clinical  remission,  And  disagree with   moayddei11    et   al,   Angelberger14  

et   al   and nishida19    et   al   in   which   no   clinical   remission achieved in all patients and Rossen10  et al in which 30% only of patients achieved clinical remission.

CONCLUSION

 

FMT provides a promising new therapy for UC with Successful FMT associated with decreased activity of the disease and more well designed studies on large scale   of   patients   and   long-term   follow-up   are necessary to confirm the effects of FMT.

 

Keywords


                 INTRODUCTION

 

 

 

Ulcerative colitis  (UC)  is  a  chronic,  relapsing  and remitting,    inflammatory    disease    of    the    colon occurring   at   the   interface   between   the   luminal contents    and    the    mucosal    immune    system.1

 

Although  Most of the treatments for UC  target the immune  system,  number  of  patients  continue  to have inadequate disease control.2The gut microbiota in healthy individuals is known to  provide a number of health  benefits to  the host, relating to pathogen protection, nutrition, metabolism,  and  the  immune  system.3   The  role  of the  gut  flora  in  the  pathogenesis  of  Inflamatory bowel    disease    (IBD)    has    been    increasingly investigated,  and  it  is  now  clear  that  a  “dysbiosis" which    is    an    unfavorable    alteration    of    the composition  and  function  of  the  gut  microbiota, exists  in  IBD  that  possibly  leads  to  an  abnormal immune   response   which   alters   host−microbiota interaction and the host immune system.3 Due to the pro-inflammatory role of dysbiosis, fecal microbiota transplantation (FMT) has been recently advocated   as   a   possible   additional   measure   to improve the outcome of IBD. FMT is the transfer of  fecal  material containing  bacteria  and  natural antibacterial   from   a   healthy   individual   into   a diseased recipient. Previous terms for the procedure include   fecal   bacteriotherapy,   fecal   transfusion, fecal  transplant,  stool  transplant,  fecal  enema,  and human    probiotic    infusion    (HPI).    Because the procedure  involves  the  complete  restoration  of  the entire  fecal  microbiota,  not  just  a  single  agent  or combination  of  agents,  these  terms  have  now been replaced    by    the    new    term    fecal    microbiota transplantation.5  FMT has been clinically adapted to recurrent  Clostridium difficile  infection  (CDI),  and the  efficacy  of  FMT  for  CDI  has  been  established with  a  high  cure  rate  of  >90%  in  clinical  trials.6 Number of studies, including randomized controlled trials,    systematic    reviews,    and    meta-analyses suggest  that  FMT  is  effective  in  the  treatment  of patients with active UC.7

 

 

 

 

 

 

 

 

 

 

SUBJECT AND METHODS

 

 

 

 

 

 

 

 

 

 

 

 

A  case  control  study  was  carried  out  to  find  the efficacy of FMT  in  patients  with  ulcerative  colitis. This   study   was   conducted   on   50   patients   who fulfilling the designed inclusion criteria.  The study was carried out from Outpatient Clinic and Inpatient Units   of   Hepatogastroenterology   and   Infectious Diseases   department,   Faculty   of   Medicine,   Al- Azhar University Hospitals (Al-Hussein  &  Sayed Galal Hospitals) from May 2016 to May 2018 .

 

We included Egyptian patients, age ≥18 years with active UC patients confirmed diagnosis by using conventional clinical, endoscopic, radiological         and histopathological criteria after informed consent was taken.

 

We excluded patients with indeterminate    colitis,    Major    comorbid    chronic disease  eg  CLD,  a  history  of  previous  malignant diseases,   Pregnancy,   Irritable   bowel   syndrome, History of major gastrointestinal surgical procedures especialy resection  anastomosis  operation,  Recent antibiotic use  (the  last  two  weeks)  and  Patients refuse to participate in the study. Donors: Age ≥18 years, no antibiotic therapy within the past

3 months, Negative history for intestinal diseases or recent   gastrointestinal   infections,   autoimmune  or other  immune-mediated  diseases,  or  any  kind  of malignancies,  Chronic  hepatitis  B  and  C,  human immunodeficiency    virus,    cytomegalovirus,    and syphilis were excluded.    Preparation of Donor Stool: Donors   underwent mild   colonic   lavage   using polyethylene glycol before stools were collected in special vessels, the stool weighing 50 to 100 g was diluted with sterile normal saline (200–350 mL) and filtered through sterile gauze twice to remove crude components.  A  total  of  300  to  500  mL  of  the extracted     suspension     containing     the     donor’s intestinal flora was placed into 20-mL syringes. An aliquot  of  the  original  donor  stool  was  frozen  at enrollment  for  further  analysis  of  the  transferred microbiota. alone (oral 5-aminosalicylates (3 grams    per    day)    until    activity    subsided    then maintenance  dose  500  mg  twice  daily)  and  follow up was done for the 24th week of study and Group II  include  25  patients  who  treated  with  medical treatment    and    underwent    FMT    via    complete colonoscopy every three weeks until the ninth week and  then  follow up  was done for the 24th  week of study.

 

Follow  up  of  the  patients  were  done  by  clinical evaluation,       laboratory       investigations       and colonoscopy at 0, 3, 6, 9, 18 and 24 weeks of study and     measuring     endoscopic     disease     activity according  Mayo  clinic  score  for  activity  index  for patients of UC.

 

Statistical analysis:

Data  were  analyzed  using  Statistical  Program  for Social  Science  (SPSS)  version  15.0.    Quantitative data were expressed as  mean ±  standard  deviation (SD). Qualitative data were expressed as frequency and percentage.8

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 


RESULTS

 

 

 

 

Variables                                                                                 Group I (N = 25)                Group II (N = 25)                   P-value

 

Proctosigmoiditis                 3                 12%              2                    8%

 

Disease extension


Lt sided colitis                  20                80%             22                  88% Pan-colitis                      2                  8%               1                    4%


0.73 NS

 

 

Table 1: comparison between studied groups as regard extension of disease

 

 

                   Group I

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Hb (g/dl)

Mean

9.6

9.8

10.2

10.4

10.9

11.9

< 0.001 HS

±SD

0.5

0.5

0.5

0.5

0.6

0.6

WBCs (x103/cmm)

Mean

8.4

8.9

8.0

7.3

6.8

6.2

< 0.001 HS

±SD

1.0

0.5

0.4

0.4

0.4

0.3

ESR (mm/hour)

Mean

35.2

29.9

24.6

20.5

10.2

8.2

< 0.001 HS

±SD

7.0

5.9

4.9

4.0

2.0

1.5

CRP (mg/dl)

Mean

29.8

19.4

13.1

10.5

5.1

3.0

< 0.001 HS

±SD

5.3

3.4

2.6

2.0

1.1

0.5

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Table 2: comparison between laboratory data follows up in group I.HS: p-value < 0.001 is considered highly significant

 

 

 

 

                             Group II

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Hb (g/dl)

Mean

9.4

9.8

10.4

10.7

11.1

12.4

< 0.001 HS

±SD

0.5

0.5

0.6

0.6

0.6

0.7

WBCs (x103/cmm)

Mean

8.3

8.7

7.8

7.1

6.6

5.8

< 0.001 HS

±SD

1.1

0.5

0.5

0.6

0.5

0.7

ESR (mm/hour)

Mean

33.8

28.7

22.7

18.5

9.1

7.5

< 0.001 HS

±SD

7.5

6.4

5.1

4.0

2.0

1.7

CRP (mg/dl)

Mean

30.3

19.7

10.9

9.7

4.6

2.7

< 0.001 HS

±SD

6.1

3.9

2.4

1.8

1.0

0.6

 

                                                                                       

HS: p-value < 0.001 is considered highly significant.

Table 3: comparison between laboratory data follows up in group II.

 

 

 

 

            Group I

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Stool frequency

0

0

0%

0

0%

0

0%

2

8%

5

20%

11

44%

< 0.001

HS

1

0

0%

0

0%

4

16%

6

24%

10

40%

4

16%

2

0

0%

4

16%

7

28%

7

28%

6

24%

10

40%

3

25

100%

21

84%

14

56%

10

40%

4

16%

0

0%

Rectal Bleeding

0

0

0%

0

0%

0

0%

1

4%

4

16%

8

32%

< 0.001

HS

1

0

0%

0

0%

3

12%

6

24%

6

24%

7

28%

2

0

0%

3

12%

8

32%

6

24%

7

28%

7

28%

3

25

100%

22

88%

14

56%

12

48%

8

32%

3

12%

Mucosal app. At endoscope

0

0

0%

0

0%

0

0%

2

8%

5

20%

10

40%

< 0.001

HS

1

0

0%

0

0%

4

16%

6

24%

10

40%

3

12%

2

0

0%

6

24%

10

40%

11

44%

6

24%

11

44%

3

25

100%

19

76%

11

44%

6

24%

4

16%

1

4%

Physician score

0

0

0%

0

0%

0

0%

2

8%

5

20%

9

36%

< 0.001

HS

1

0

0%

0

0%

4

16%

4

16%

5

20%

5

20%

2

0

0%

5

20%

7

28%

4

16%

7

28%

8

32%

3

25

100%

20

80%

14

56%

15

60%

8

32%

3

12%

Total

No Resp.

25

100%

24

96%

13

52%

9

36%

2

8%

0

0%

< 0.001

HS

Response

0

0%

1

4%

12

48%

16

64%

22

88%

20

80%

Remission

0

0%

0

0%

0

0%

0

0%

1

4%

5

20%

 

HS: p-value < 0.001 is considered highly significant.

Table 4: comparison between Mayo score follow up in group I.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Group II

Variables

Baseline

(N = 25)

3 weeks

(N = 25)

6 weeks

(N = 25)

9 weeks

(N = 25)

18 weeks

(N = 25)

24 weeks

(N = 25)

p-value

Stool frequency

0

0

0%

0

0%

0

0%

4

16%

12

48%

19

76%

< 0.001

HS

1

0

0%

0

0%

6

24%

8

32%

11

44%

5

20%

2

0

0%

7

28%

11

44%

10

40%

1

4%

1

4%

3

25

100%

18

72%

8

32%

3

12%

1

4%

0

0%

Rectal Bleeding

0

0

0%

0

0%

0

0%

4

16%

10

40%

16

64%

< 0.001

HS

1

0

0%

0

0%

5

20%

8

32%

8

32%

7

28%

2

0

0%

6

24%

10

40%

10

40%

7

28%

2

8%

3

25

100%

19

76%

10

40%

3

12%

0

0%

0

0%

Mucosal app. At endoscope

0

0

0%

0

0%

0

0%

4

16%

12

48%

17

68%

< 0.001

HS

1

0

0%

0

0%

7

28%

9

36%

11

44%

6

24%

2

0

0%

9

36%

10

40%

10

40%

1

4%

2

8%

3

25

100%

16

64%

8

32%

2

8%

1

4%

0

0%

Physician score

0

0

0%

0

0%

0

0%

4

16%

9

36%

19

76%

< 0.001

HS

1

0

0%

0

0%

6

24%

8

32%

8

32%

2

8%

2

0

0%

7

28%

11

44%

9

36%

7

28%

4

16%

3

25

100%

18

72%

8

32%

4

16%

1

4%

0

0%

Total

No Resp.

25

100%

20

80%

7

28%

1

4%

0

0%

0

0%

< 0.001

HS

Response

0

0%

5

20%

18

72%

23

92%

15

60%

7

28%

Remission

0

0%

0

0%

0

0%

1

4%

10

40%

18

72%

 

 

 

 

 

HS: p-value < 0.001 is considered highly significant.

Table 5: comparison between Mayo score follow up in group II.


 

 

 

 

DISCUSSION

 

 

Fecal microbiota transplantation seems beneficial and safe for treatment of active UC based on the results of this study. As regard patients preparation we use bowel lavage with poly ethylene glycol and we did not use antibiotics before FMT as done by the four Randomized Clinical Trials (RCT)  Paramsothy9 et al, Rossen10 et al , Moayyedi11 et al and Costello7 et al  and other studies used antibiotics before FMT include Wei et al 12 who used Vancomycin 500 mg bd 3 days before FMT ,Ishikawa13 et al who used Amoxicillin (1500mg/d),and metronidazole (750 mg/d) and Angelberger14 et al who used Metronidazole 5-10 days before FMT.

 

Although the concept of adjuvant interventions, such as bowel lavage or pretreatment antibiotics, to decrease the bacterial burden and enable healthy microbial engraftment in the host has been speculated, it may also interfere with the function of the new microbiota.15

In our study we use of multiple donors (8-10) who un related to patients as done by Paramsothy et al 9 who used (3-7) donors and Costello et al who used (3-4)

 

 

 

 

 

 

 

donors un related to patients on both studies.Un like  Moayyedi11 et al and Rossen10 et al who used single donor for fecal microbiota transplantation infusion. It was initially considered that related donors. might lead to a better tolerance of FMT. However, the relatives of IBD patients have been recently demonstrated to possibly have themselves gut dysbiosis.16 Multi donor fecal microbiota transplantation infusions were utilized in our study, both to ensure an adequate supply of infusions for fecal microbiota transplantation and to minimize the possibility of patients receiving only therapeutically ineffective donor stool.

 

In our study the amount of stool was (50 -100) gm. For each fecal microbiota transplantation with total amount reaching (200-400) gm at the end of study. This amount of stool was similar to Rossen10 et al who used 120 gm of stool per week and Costello7 et al who used 100gm of stool, per week, and disagree with paramsothy9 et al who used the most intensive amount of stool who used (187.5) gm of stool per week for 8 weeks and moayyedi11 et al who used amount of (8.3) gm of stool along the study.

 

In  our  study  we  use  frozen  donor  stool  from  de- identified,   unrelated   healthy  donors   as   done   by Paramsothy9  et al and Costello7  et al  who used the same method of processing. Other studies including Rossen10  et al and moayeddi11  et al who used fresh stool from single donor, Stool processed aerobically in   our   study   as   done   by   Moayyedi11     et   al, Paramsothy9    et   al   and   Rossen10    et   al   un   like Costello7  et al the only study in which donors stool processed      anaerobically      without      significant differences between studies, so it seems that neither anaerobic vs aerobic stool preparation, nor fresh or frozen stool, significantly influences the efficacy of FMT.17

 

In  our  study  we  used  colonoscopy  as  a  route  for delivery of fecal microbiota as done by Paramsothy9 et al  and  Costello7  et al  who  used  colonoscopy for microbiota    transplantation,    other    studies    using different routes were done by Moayyedi11  et al who used retention enema and Rossen10  et al who used naso  duodenal  tube  as  a  route  of  delivery  of  fecal microbioa.

 

In  our  study  we  use  of  colonoscopy to  ensure  that large quantity of stool delivered and  to  ensure that microbiota reaching the ileum and right colon, other studies used retention enemas explained that enemas are less expensive and safer to administer and more practical than colonoscopy.11

 

As  to  the  administration  route,  in  agreement  with studies who  used  colonoscopy   reported  a possible increased   benefit   by   using   the   lower   route   of administration  in  subgroup  analyses,  it  has  been speculated   that   the   upper   gastrointestinal   route could   interfere   with   the   activity  of   some   FMT components   before   they   reach   the   colon   (since gastric  acid  can  damage  Bacteroidetes),  However, many  bacteria  belonging  to  the  Firmicutes  phylum require  an  upper  GI  tract  transit  in  order  to  be activated,  supporting  a  possible  advantage  of  the upper route.18

 

 

In  our  study  the  duration  of  FMT  was  9  weeks  of transplantation(colonoscopy   was   done   and   FMT was done at 0,3,6,9 weeks of study ) and follow up was  done  up  to  the  24th  week  of  study,  Similar duration was used by paramsothy9  et al who had the duration    of    8    week    of    transplantation    and Moayyedi11   et  al  demonstrated  efficacy  of  FMT over placebo for  7 weeks, other studies  used short duration    include    Rossen10     et    al    demonstrated efficacy  of  FMT  over  placebo  for    6  weeks  and Costello7  et al who used the shortest duration of 3- dose,   1-week   of   transfusion.   The   duration   and intensity    of    faecal    microbiota    transplantation therapy might need to be individualized    treatment once  a  week  could  be  effective  in  some  patients whereas more intensive therapy might be needed in others.

 

 

Both groups start  with anemia HB (9.6) in group I and  (9.4)  in  group  II  then  improvement  start  to develop by the third week HB (9.8) on both groups and continue along the 6th week, the 9th week and the18th week, By the week 24 improvement in HB is more significant in group II HB (12.4) compared to  (11.9)  in  group  I  with  statistically  significant difference between both groups P value (0.027).

 

 

Both  groups  start  with  leucocytic  count  (8.4)  in group  I  and  (8.3)  in  group  II  with  no  statistically significant  difference  between  both  groups  II  then improvement start to develop by the third week on both  groups  and  continue  along  the  6th  week,  the 9th   week   and   the18th   week,   By   the   week   24 reduction in leucocytic count is more significant in group II HB (5.8) compared to (6.2) in group I with statistically   significant   difference   between   both groups P value (0.008).

 

Patients  of  both  groups  start  with  high  ESR  level (35.3)   in   group   I   and   (33.8)   in   group   II   then reduction in ESR achieved on both groups along the study,  By  the  24th  week  ESR  become  normal  on both groups (8.2) in group I and (7.5) in group II.

 

Patients  of  both  groups  start  with  high  CRP  level (29.8)   in   group   I   and   (30.3)   in   group   II   then reduction in ESR achieved on both groups along the study,  By  the  24th  week  CRP  become  normal  on both groups (3) in group I and (2,7) in group II. The clinical  response  is  defined  as  reduction  in  mayo score equal or less than three points from base line score.  The  remission  is  defined  as  a  resolution  of clinical   symptoms,   including   cessation   of   rectal bleeding  and  improvement  in  bowel  habits  (total mayo score equal or less than 2).

 

At   the   start   of   study   both   groups   were   in exacerbation (mayo score was 12).  At  the  third week  both  groups  start  to  improve  with  where  4% (1/25)   of   patients   of   group   I   achieved   clinical response  and  20%  (5/25)  of  patients  of  group  II achieved    clinical    response    and    no    remission achieved   on   both   groups   with   no   statistically significant  difference  between  both  groups.  By  the 6th  week  of  study  more  patients  of  both  groups achieved  clinical  response  where  72%(18/25)  of patients of group II become responsive to treatment and 48%(12/25) of patients of group I responsive to treatment as regard reduction in mayo score to (9.4) in  group  I  compared  to  (8.4)  reduction  in  mayo score  in  group  II  with  no  statistically  significant difference  between  both  groups.  By  the  9th  week 92% (23/25) of patients of group II achieved clinical response  compared  to  64%(16/25)  and  one  patient of   group   II   (4%)   achieved   clinical   remission (reduction  mayo  score  to  equal  or  less  than  two) with no remission achieved in group I. By the 18th week  of study 40%  (10/25) of patients  of group  II achieved clinical remission and only one patient of group  I  achieved  clinical  remission.  At  the  end  of the study by the 24th week 72% (18/25) of patients of  group  II  achieved  clinical  remission  and  only 20%(5/25)  of  patients  of  group  I  achieved clinical remission.

 

The end result of this study agree with paramsothy9

et al   in   which   remission   induction   achieved   in 44%(18/41)   and   Costello7    et   al   where   is   50% (19/38)  achieved  clinical  remission,  And  disagree with   moayddei11    et   al,   Angelberger14  

et   al   and nishida19    et   al   in   which   no   clinical   remission achieved in all patients and Rossen10  et al in which 30% only of patients achieved clinical remission.

CONCLUSION

 

FMT provides a promising new therapy for UC with Successful FMT associated with decreased activity of the disease and more well designed studies on large scale   of   patients   and   long-term   follow-up   are necessary to confirm the effects of FMT.

 

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