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Файл:Ординатура / Хирургия / Библиотека им академика М.И. Перельмана / Книга_1784_Библиотеки_им_академика_М_И_Перельмана.pdf
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- •Preface
- •Contents
- •Contributors
- •History of Stomas*
- •Stoma Physiology
- •Preoperative Considerations
- •Stoma Therapy
- •Quality of Life with a Stoma
- •Diverting Stomas
- •Cecostomy
- •End Ileostomy
- •Continent Stomas
- •Ostomy Take-Down
- •Methods of Urinary Diversion
- •Minimally Invasive Stomas
- •Ilestomy and Pouch Dysfunction
- •Parastomal Hernias
- •Stomal Prolapse
- •Management of Intestinal Fistulas
- •Pediatric Intestinal Stomas
- •Appendix A

138 Pearl et al.
Table 1 Effectiveness of Loop Stomas in Diverting Fecal Stream
No. of patients
with complete
Series Year Type Method diversion (%)
Rombeau et al. [10] 1978 Colostomy Barium 25/25 (100)
Schofield et al. [11] 1980 Colostomy Chromium 51 10/10 (100)
Williams et al. [8] 1986 Ileostomy/ Chromium 51 10/10 (100)
colostomy
Fontes et al. [12] 1988 Colostomy Barium 53/62 (85)
Winslet et al. [13] 1991 Ileostomy Chromium 51 22/26 (85)
a
a
When retracted stomas were revised, defunctioning efficiency approached 100%.
Another important but frequently overlooked question is: How often
are diverting stomas actually temporary? Table 2 summarizes the results of
studies concluding that nearly half of all diverting stomas that were in-
tended to be temporary remain permanent. The usual causes for this change
to permanency include patient preference and overall medical condition,
nonresectability of the primary tumor, and limited life expectancy. These
observations underscore the importance of careful preoperative planning
and attention to technical detail in creating a “temporary” loop ostomy in
order to minimize long-term morbidity.
Once the decision has been made to create a diverting stoma, the ques-
tion arises about which type of loop stoma is best, colostomy or ileostomy.
The most common method used to defunction the distal colon and rectum
is the construction of a transverse loop colostomy. Although this type of
stoma is relatively easy to fashion, it has several disadvantages. First, a
traditional right-upper-quadrant transverse loop colostomy is often difficult
to cover properly with an ostomy device because of its relative bulk and
location. Second, the liquid consistency and corrosive nature of the effluent
often lead to skin irritation in a relatively flush loop colostomy. Third, the
TABLE 2 Change of Loop Stoma from Temporary to Permanent State
Patients with
permanent loop
Series Year stomas (%)
Winkler and Volpe [14] 1982 99/211 (47)
Boman-Sandelin and Fenyo [15] 1985 11/29 (38)
Rutegard and Dahlgren [16] 1987 35/56 (62)

Diverting Stomas 139
offensive odor of colostomy output is a frequent patient complaint. Finally,
closure of a transverse loop colostomy is associated with an overall compli-
cation rate of between 10 and 50%, with most complications secondary to
wound infections and anastomotic leaks.
In contrast, a properly everted loop ileostomy is a better choice for a
diverting stoma because it circumvents most of the problems noted here. In
a prospective controlled trial comparing loop ileostomy with loop trans-
verse colostomy, ileostomy was associated with significantly less odor, a
lower frequency of ostomy device changes, fewer complications of stoma
management, and a lower wound infection rate following ostomy closure
[8]. A retrospective case-matched study from the Mayo Clinic [9] identified
no difference in morbidity or mortality from the operations to form or re-
verse the respective ostomies. However, patients with loop colostomies did
have a statistically significant higher risk of skin irritation and leakage of
the stoma appliance. Surgeon preference is likely the overriding influence
in many of these cases; however, careful evaluation of the current literature
reveals loop ileostomies to be a better alternative for both the surgeon and
the patient.
With the advance of technology and increasing experience, the use of
laparoscopy has allowed for safe creation and closure of diverting stomas,
both ileostomy and colostomy.
CONCLUSION
In summary, the construction of a diverting stoma should be considered a
major part of the overall operative procedure. It should be performed by a
surgeon who is not only technically skilled but also understands the poten-
tial complications associated with an ileostomy or a colostomy. In the ma-
jority of cases, loop stomas do seem to effectively divert the fecal stream.
Almost half of all temporary loop stomas become permanent, a fact that
underscores the importance of placing them in an optimal location on the
abdominal wall and paying strict attention to technical detail. Finally, loop
ileostomy should be considered a potentially superior alternative to trans-
verse loop colostomy following various colorectal surgical procedures.
SUGGESTED READINGS
Abcarian H, Pearl, RK. Stomas. Surg Clin North Am 1988; 68:1295–1305.
Pearl RK. Complications of ileostomy. In: Nelson RL, Nyhus LM, eds. Surgery of
the Small Intestine. Norwalk, CT: Appleton & Lange, 1987: 499–509.
Pearl RK, Prasad ML, Orsay CP, et al. Early local complications from intestinal
stomas. Arch Surg 120:1145–147, 1985.

140 Pearl et al.
Pearl RK, Prasad ML, Orsay CP, et al. A survey of technical consideration in the
construction of stomas. Am Surg 51:462–465, 1985.
Pearl RK, Prasad ML, Tan AB. Loop stomas. Indications, techniques for construc-
tion, take-down, and management. Semin Colon Rectal Surg 2:93 –101, 1991.
Pearl RK, Tan AB. Stomas and stoma care. In: Nyhus LM, Baker RJ, eds. Mastery
of Surgery, 2nd ed. Boston: Little, Brown, 1992: 1218–1226.
Prasad ML, Pearl RK, Orsay CP. End-loop ileocolostomy for massive trauma to
the right side of the colon. Arch Surg 119:975–976, 1984.
Unti JA, Abcarian H, Pearl RK, et al. Rodless end-loop stomas—A seven-year
experience. Dis Colon Rectum 34:999–1004, 1991.
REFERENCES
1. Sugarman HJ, Sugarman EL, Meador JG, et al. Ileal pouch anal anastomosis
without ileal diversion. Ann Surg 2000; 232:530–541.
2. Mowschenson PM, Critchlow JF. Outcomes of early surgical complications
following ileoanal pouch operation without diverting ileostomy. Am J Surg
1995; 169:143–146.
3. Demetriades D, Murray JA, Chan L, et al. Penetrating colon injuries requiring
resection: diversion or primary anastomosis? An AAST Prospective Multi-
center Study. J Trauma 2001; 50:765–775.
4. Weiss UL, Jehle E, Becker HD, et al. Laparoscopic ileostomy. Br J Surgery
1995; 82:1648.
5. Hasegawa H, Radley S, Morton DG, Keighley MRB. Stapled versus suture
closure of loop ileostomy: a randomized controlled trial. Ann Surg 2000; 231:
202–204.
6. Mileski WJ, Regs RV, Joehl RJ, et al. Rates of morbidity and mortality after
closure of loop and end colostomy. Surg Gynecol Obstet 1990; 171:17–21.
7. Feinberg SM, McLeod RS, Cohen Z. Complications of loop ileostomy. Am
J Surg 1987; 153:102–107.
8. Williams NS, Nasmyth DG, Jones D, et al. Defunctioning stomas: a postoper-
ative controlled trial comparing loop ileostomy with loop transverse colos-
tomy. Br J Surg 1986; 73:566–570.
9. Sakai Y, Nelson H, Larson D, et al. Temporary transverse colostomy versus
loop ileostomy in diversion: a case-matched study. Arch Surg 2001; 136:
338–342.
10. Rombeau JL, Wilk PJ, Turnbull RB, et al. Total fecal diversion by the tempo-
rary skin-level loop transverse colostomy. Dis Colon Rectum 1978; 21:223–
226.
11. Schofield PF, Cade D, Lambert M. Dependent proximal loop colostomy: does
it defunction the distal colon? Br J Surg 1980; 67:201–202.
12. Fontes B, Fontes W, Utiyama EM, et al. The efficacy of loop colostomy for
complete fecal diversion. Dis Colon Rectum 1988; 31:298–302.
13. Winslet MC, Drolc A, Allan A, Keighley MRB. Assessment of the defunct-
ioning efficiency of the loop ileostomy. Dis Colon Rectum 1991; 34:699–
703.

Diverting Stomas 141
14. Winkler MJ, Volpe PA. Loop transverse colostomy—the case against. Dis
Colon Rectum 1982; 25:321–326.
15. Boman-Sandelin K, Fenyo G. Construction and closure of transverse loop
colostomy. Dis Colon Rectum 1985; 28:772–774.
16. Rutegard J, Dahlgren S. Transverse colostomy or loop ileostomy as diverting
stoma in colorectal surgery. Acta Chir Scand 153:229–232, 1987.
17. Pearl RK. Complications of ileostomy. In: Nelson RL, Nyhus LM, eds. Sur-
gery of the Small Intestine. Norwalk, CT: Appleton and Lange, 1987:499–
509.


8
Cecostomy
Anthony J. Senagore
The Cleveland Clinic Foundation, Cleveland, Ohio, U.S.A.
INTRODUCTION
Pillore performed the first right inguinal cecostomy in 1776 to provide de-
compression for an obstructing rectal carcinoma [1,2]. This technique was
not popularized until the 1950s, when cecostomy was advocated for several
clinical conditions: (1) distal colonic obstruction, (2) proximal diversion to
protect a distal anastomosis, (3) cecal volvulus, (4) decompression of toxic
megacolon, and (5) intestinal pseudo-obstruction [3,4]. It should be recalled
that cecostomy allowed for satisfactory colonic decompression with mini-
mal anesthetic requirements at a time when large bowel obstruction carried
a mortality of 12–56% [5–8]. Two other factors that increased the fre-
quency with which this diversion procedure was performed were the re-
liance on three-stage resections for complicated diverticular disease and
obstructing neoplasms and the perceived need to protect distal colonic anas-
tomoses.
The use of cecostomy as an initial decompressive procedure for distal
colonic obstruction has been very successful for decompression of the colon
and subsequent preparation of the colon for definitive surgery [9]. How-
ever, in most series the mortality rate following decompressive cecostomy
was alarmingly high (21.5%) [2–9]. This situation is more a reflection on
differences in perioperative care of the patient with large bowel obstruction
rather than a specific disadvantage of cecostomy. At the time of cecostomy
placement, as many as 10% of patients in these series had cecal perforations
that would have been unnoticed if a blind transverse loop colostomy had
been chosen as the diversion procedure [9]. Conversely, complementary
cecostomy placement performed to protect a difficult distal colonic anasto-
mosis has been associated with few complications. However, it is discon-
certing that leakage, with subsequent mortality, occurred as frequently (2%)
at the cecostomy site and at the distal anastomosis. Such leakage is a factor
that discourages wide application of this form of proximal diversion [1].
143

144 Senagore
The treatment of nongangrenous cecal volvulus has included cecal resec-
tion, cecopexy, detorsion alone, and cecostomy with or without cecopexy
[10–14]. A preference for nonresectional therapy with viable bowel has
been noted, and the lowest recurrence rate appears to be associated with
cecopexy and cecostomy tube placement [10]. In such cases cecostomy is
most readily achieved through the appendicular stump unless the stump was
previously resected. Overall, an approach involving cecostomy and ceco-
pexy is highly successful and is associated with lower operative mobility
and mortality than resectional therapy [15].
The use of surgical cecostomy for intestinal pseudo-obstruction had
been associated with operative mortality ranging from 25–44%, even with
adequate decompression [16–18]. Mortality increases significantly with de-
lay in diagnosis and associated full-thickness necrosis of the bowel wall,
usually in the face of significant associated medical illnesses [20,21]. How-
ever, the morbidity rates associated with endoscopic decompression are
minimal compared to those of surgical cecostomy.
TUBE PLACEMENT
Throughout the years a number of techniques and tubes have been advo-
cated for cecostomy. The two most frequently recommended techniques
are exteriorization and blind tube cecostomy [9,22–26]. Typically the tube
placement procedure is performed through a right-lower-quadrant incision,
although Hughes [27] has advocated a formal laparotomy with placement
of the cecostomy through a separate stab incision.
The procedure can be performed with the patient under local infiltra-
tive anesthesia, although general anesthesia and regional blocks have been
used, depending on the patient’s medical condition. A transverse (McBur-
ney) incision is made in the right lower quadrant to allow access to the
peritoneal cavity (Fig. 1A). On entry to the peritoneal cavity, the distended
cecum should be readily identifiable. The cecum is carefully and gently
inspected for perforations or serosal tears, which can occur in as many as
3% of patients with cecal distention greater than 10 cm [2]. If the surgeon
encounters a collapsed cecum, bloody peritoneal fluid, or purulent exudate,
the procedure should be terminated in favor of a formal laparotomy, which
allows for clearer identification of the pathological condition and definitive
treatment. After the cecum has been identified, the cecotomy can be per-
formed by exteriorization or the blind tube technique (Fig. 1B). When exte-
riorization is used, the cecal pouch is allowed to protrude from the abdomi-
nal cavity to skin level. A row of seromuscular sutures is placed prior to
opening the cecum to prevent spillage of cecal contents into the peritoneal
cavity. A cecotomy is made, and the cecum is sewn to the skin circumferen-
tially with seromuscular sutures (Fig. 1B and C), completing the cecotomy.

Cecostomy 145
Figure 1 A. A transverse (McBurney) incision is made in the right lower quad-
rant to expose the distended cecum, which is brought out to skin level through this
incision. The peritoneal cavity is then closed circumferentially with seromuscular
interrupted sutures. B. After the peritoneum has been approximated circumferen-
tially, a cecotomy is performed. C. The cecotomy is matured by circumferential
placement of full-thickness sutures through the cecum to the dermis.
When tube cecotomy is chosen, the cecum is initially sutured to the
peritoneum circumferentially to prevent peritoneal soiling. Two concentric
purse-string sutures of 2-0 silk are then placed in the cecum (Fig. 2A). A
small colotomy is made in the center of the inside purse string, with suction
readily available to aspirate the effluent. An important technical point is to
place the suction tip at the opening of the colostomy rather than to insert it
into the cecum, because collapse of the cecum through suction may prevent
adequate removal of the more distal contents. Once the effluent has been
controlled, a 22 or 24F soft rubber catheter is inserted through the cecotomy
and both purse strings are tied securely. A variety of catheters can be em-
ployed, including a de Pezzer catheter, Foley catheter, endotracheal tube,
or even a soft rubber chest tube [9–28]. A water-filled balloon catheter has
the advantage of being more readily interchangeable, if a change should
become necessary, than the de Pezzer catheter. In addition, the water bal-
loon catheter offers a security advantage over a non–balloon-type catheter

146 Senagore
Figure 2 The cecum is exteriorized through a right-lower-quadrant incision. The
peritoneum may or may not be approximated to the seromuscular layer, according
to the surgeon’s preference. Prior to performing a cecotomy, a double row of sero-
muscular purse-string sutures is placed around the proposed tube site for the cecos-
tomy. A 24F Foley catheter should be used as the cecostomy tube. First the inner
purse-string sutures and then the outer ones are tied securely to hold the cecotomy
around the tube and keep it firmly in position B. The skin is closed around the
tube. The tube should also be secured at skin level with a separate stay suture.
in that the balloon tends to retard accidental dislodgment. After the tube
has been secured, the fascial skin layers are closed loosely around the cath-
eter and a light dressing is applied (Fig. 2B).
In recent years, percutaneous cecostomy guided by computed tomog-
raphy (CT) has been described [29,30]. For this technique, the patient is
rolled to the left lateral decubitus position. Only local infiltrative anesthesia
is required at the site of tube insertion. A small incision is made, and, under
CT guidance, a needle is placed through the retroperitoneum into the cecal
lumen. The track can then be gently dilated via the Seldinger technique to
allow catheter placement for decompression. Although most reports have
involved a relatively small group of patients, the technique has resulted in
successful rapid decompression of the cecum. Such decompression usually

Cecostomy 147
is achieved with the use of a 12F catheter. In addition to the significant
advantage of requiring only a local anesthetic, there have been no reported
cases of major morbidity or procedure-related mortality with this approach
[29,31,32]. Subsequently, Morrison et al. [33] have described a transperito-
neal approach that excludes the need for CT guidance. This technique re-
quires only fluoroscopy, thereby making the procedure readily available
at most institutions. In addition, there are limitations associated with the
retroperitoneal approach via CT guidance: (1) what appears to be an extra-
peritoneal cecum actually may be intraperitoneal because of a thin veil of
peritoneal reflection that encircles the cecum and (2) the posterior approach
via CT guidance presents difficulties when the cecum is tremendously di-
lated or when it has twisted anteriomedially on its mesentery [16,34]. When
the transperitoneal approach is used, the dilated cecum is located fluoro-
scopically and an area central to the cecum is identified. A 2-in. square of
skin and abdominal wall is anesthetized with a local infiltrative anesthetic
agent. A specially designed 18-gauge introducer needle loaded with a plas-
tic T fastener is carefully inserted into the cecal lumen. The T fastener is
launched from the introducer and used to secure the cecum against the ante-
rior abdominal wall. This step is repeated at each of the four corners of the
selected site for tube insertion. After the cecum has been attached to the ab-
dominal wall, the transcutaneous needle track to the cecal lumen is progres-
sively dilated via the Seldinger technique to allow a 24–34F tube to be
placed at the initial setting. This technique has been advocated primarily
for patients with cecal volvulus or those with distal colonic obstruction. In
a small group of patients, the technique has been very successful, with no
procedure-related morbidity or mortality reported [33].
For the first 12–24 hr after placement of a cecostomy tube, the tube
should be gently irrigated with 30 mL of normal saline every 2 hr. Use of
larger volumes may disrupt the seal between the cecum and the abdominal
wall, increasing the chance of peritoneal contamination. During ensuing
days, the irrigation solution can be increased steadily to 500–1000 mL [9].
As the volume is increased, turning the patient in different positions can
allow adequate preparation even as far distally as the descending colon.
Between irrigation intervals, the tube must be carefully inspected to ensure
that no obstruction has occurred as a result of accumulation of stool or
kinking. If unrecognized obstruction occurs, the cecum may burst [9].
TUBE MANAGEMENT
Tube management depends on the indication for placement of the tube.
When the cecostomy is placed as protection for distal anastomosis, it should
be left for 7–10 days. After this time, adequate integrity of the colonic
anastomosis should be ensured and the tube can be removed readily. In
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