Evaluation of a patient referring GERD after sleeve gastrectomy should start with a detailed history and physical examination; the presence or absence of GERD-related symptoms should be thoroughly documented as well as any prior treatments or therapy used to treat it. Obtaining preoperative and operative records is of paramount importance particularly in those patients who had their index procedure performed elsewhere. Any endoscopic findings and prior imaging available are important to determine what the best course of action would be. If the patient had preoperative and postoperative imaging such as UGI, it is useful to compare those with a recent study to look for anatomical problems that may have been not addressed at the time of the index operation or developed over time. After this information is obtained, we can classify the GERD after sleeve as:
1. De novo GERD
2. Preexisting GERD without improvement
3. Preexisting GERD with worsening/complication
Regardless of how we classify the GERD, an initial evaluation with imaging
studies such as UGI and EGD is recommended. Comparison with any prior films if available is of significant value. Based on the UGI, we can determine if the shape of the sleeve falls into one of the following categories: tubular, dilated bottom, dilated upper, or dumbbell-shaped sleeve; we will also be able to evaluate esophageal peristalsis in real time and if there is associated hiatal hernias. We believe UGI under fluoroscopy provides important physiologic and anatomic information that can help guide our management approach, and therefore we offer it to all patients. We follow the radiologic evaluation with endoscopy, and during endoscopy, we look for objective signs of reflux such as esophagitis, presence of bile in the stomach or esophagus, as well as missed or recurrent hiatal hernias. In patients with evidence of esophagitis or metaplasia, multiple biopsies are taken. During the endoscopy, subtle findings that suggest a kink or a stricture may be present. In the absence of objective signs of gastroesophageal reflux disease on both endoscopy and upper GI series, we pursue physiologic testing followed by highresolution manometry and pH monitoring. In those patients where clear reflux esophagitis is seen, this additional testing may not be necessary or may be performed in selected cases depending on what the surgical or endoscopic therapy would be.
While it is true that most sleeve-related GERD will be effectively treated with a conversion to Roux-en-Y gastric bypass, not every patient with GERD after reflux will require a bypass or would agree to have one. First key step in addressing the patient is to evaluate whether the patient was selected appropriately to have a sleeve and second is to determine the exact sleeve anatomy; are there anatomical factors that will make it more likely for this patient to experience reflux; is there dilated fundus? Is there a kink or stricture in the sleeve or is it an anatomically appropriate operation? We should pay important attention to the weight loss the patient has experienced with the sleeve. Patients who do not have adequate weight loss and have GERD symptoms should not undergo other therapies and should probably undergo a bypass; however it is our unpublished experience that patients with the association of poor weight loss after sleeve and difficult to treat GERD will correct their GERD after conversion, but their weight loss results are still marginal even with a well-constructed bypass.
Estima-se que atualmente 90% das colecistectomias sejam realizadas pela técnica laparoscópica, percentual este atingido nos Estados Unidos da América no ano de 1992. Os motivos para tal preferência na escolha da técnica cirúrgica aplicada são claros: menor dor no pós-operatório, recuperação pós-cirúrgica mais rápida, menor número de dias de trabalho perdidos e menor tempo de permanência hospitalar. A colecistectomia laparoscópica foi claramente estabelecida como padrão-ouro para o tratamento cirúrgico da litíase biliar, no entanto 2 a 15% das colecistectomias vídeolaparoscópicas necessitam de conversão para cirurgia convencional, sendo as razões mais comuns a inabilidade para se identificar corretamente a anatomia, suspeita de lesão da árvore biliar e sangramento. A identificação dos fatores associados a um maior índice de conversão possibilita à equipe cirúrgica estimar o grau de dificuldade do procedimento, preparando melhor o paciente para o risco de conversão e permitindo a participação de um cirurgião mais experiente num procedimento de maior risco.
Relacionados ao Paciente: 1. Obesidade (IMC > 35), 2. Sexo Masculino, 3. Idade > 65 anos, 4. Diabetes Mellitus e 5. ASA > 2.
Relacionadas a Doença: 1. Colecistite Aguda, 2. Líquido Pericolecístico, 3. Pós – CPRE, 4. Síndrome de Mirizzi e 5. Edema da parede da vesícula > 5 mm.
Relacionadas a Cirurgia: 1. Hemorragia, 2. Aderências firmes, 3. Anatomia obscura, 4. Fístulas internas e 5. Cirurgia abdominal prévia.
Hepatic resection had an impressive growth over time. It has been widely performed for the treatment of various liver diseases, such as malignant tumors, benign tumors, calculi in the intrahepatic ducts, hydatid disease, and abscesses. Management of hepatic resection is challenging. Despite technical advances and high experience of liver resection of specialized centers, it is still burdened by relatively high rates of postoperative morbidity and mortality. Especially, complex resections are being increasingly performed in high risk and older patient population. Operation on the liver is especially challenging because of its unique anatomic architecture and because of its vital functions. Common post-hepatectomy complications include venous catheter-related infection, pleural effusion, incisional infection, pulmonary atelectasis or infection, ascites, subphrenic infection, urinary tract infection, intraperitoneal hemorrhage, gastrointestinal tract bleeding, biliary tract hemorrhage, coagulation disorders, bile leakage, and liver failure. These problems are closely related to surgical manipulations, anesthesia, preoperative evaluation and preparation, and postoperative observation and management. The safety profile of hepatectomy probably can be improved if the surgeons and medical staff involved have comprehensive knowledge of the expected complications and expertise in their management.
The era of hepatic surgery began with a left lateral hepatic lobectomy performed successfully by Langenbuch in Germany in 1887. Since then, hepatectomy has been widely performed for the treatment of various liver diseases, such as malignant tumors, benign tumors, calculi in the intrahepatic ducts, hydatid disease, and abscesses. Operation on the liver is especially challenging because of its unique anatomic architecture and because of its vital functions. Despite technical advances and high experience of liver resection of specialized centers, it is still burdened by relatively high rates of postoperative morbidity (4.09%-47.7%) and mortality (0.24%-9.7%). This review article focuses on the major postoperative issues after hepatic resection and presents the current management.
Symptomatic hemorrhoids require a number of therapeutic interventions each of which has its own complications. Office-based therapy such as rubber band ligation carries the risk of pain and bleeding, which are self-limited, but also carries the risk of rare complications such as sepsis, which may be life threatening. Operative treatment of hemorrhoids includes conventional hemorrhoidectomy, stapled hemorrhoidectomy, and the use of energy devices. Complications of pain and bleeding are common but self-limited. Late complications such as stenosis and fecal incontinence are rare. Recurrent disease is related to the initial grade and therapeutic approach. Treatment of recurrent hemorrhoids should be individualized based on previous treatments and the grade of disease. Anesthetic complications, especially urinary retention, are common and related to the anesthetic technique. Practitioners should council their patients as to the risks of the various approaches to treating symptomatic hemorrhoids.
Extent of lymph node dissection has been an area of controversy in gastric adenocarcinoma for many years. Some surgeons believe that cancer metastasizes through a stepwise progression, and an extensive lymphadenectomy is necessary to improve survival and/or cure the patient. Other physicians argue that extensive ly-mphadenectomies only add pe-rioperative morbidity and mor-tality and do not improve survival. Asian countries have been performing extended lymphadenectomies routinely for many years with promising survival data, although Western countries have not been able to reproduce those results. Much of the controversy surrounding lymphadenectomies started in the 1980s when Japanese studies reported superior survival rates matched stage for stage, compared to the United States. This was theorized to be secondary to the more extensive lymphadenectomy performed in Japan compared to the United States.
A United Kingdom study randomized 400 patients to either a D1 or a D2 lymph node dissection. Those patients with tumors in the upper or middle third of the stomach underwent a distal pancreaticosplenectomy to obtain retropancreatic and splenic hilar nodes. While the 5-year survival rates were not statistically significant between the two groups, on multivariate analyses it was noted that those patients in the D2 group that did not undergo the distal pancreaticosplenectomy had an increased survival compared with the D1 group. A trial in the Netherlands randomized 380 gastric cancer patients to a D1 lymphadenectomy and 331 patients to a D2 lymphadenectomy. Similar to the United Kingdom study, there was not a significant difference in survival between the two groups, even when followed out to 11 years. There was a significant increase in postoperative complications in the D2 group compared with the D1 group (43 % vs. 25 %, respectively) as well as mortality (10 % vs. 4 %, respectively).
The data from these two studies suggest that a pancreaticosplenectomy performed to harvest lymph nodes seems to only add morbidity and mortality while not improving survival. One concern raised about the prior two studies was the variation in surgical technique and lack of standardization of surgeon experience. A Taiwanese study accounted for this by performing the study at a single institution with three surgeons, each of whom had completed at least 25 D3 lymph node dissections prior to the study. Patients with gastric cancer were randomized to a D1 lymph node dissection (defined as resection of perigastric lymph nodes along the lesser and greater curves of the stomach) or a D3 lymph node dissection (defined as resection of additional lymph nodes surrounding the splenic, common hepatic, left gastric arteries, nodes in the hepatoduodenal ligament, and retropancreatic lymph nodes). There was an overall 5-year survival benefit with the D3 group of 60 % compared with the D1 group of 54 %. A Japanese study evaluated a more aggressive lymph node dissection and randomized patients to a D2 dissection or a para-aortic lymph node dissection (PAND). There was no significant difference in 5-year survival between the two groups with a trend toward an increase in complications in the PAND group. Multiple studies have shown that the number of positive lymph nodes is a significant predictor of survival. Current AJCC guidelines stipulate that at least 15 lymph nodes are needed for pathologic examination to obtain adequate staging.
Laparoscopic techniques have become an integral part of surgical practice over the past several decades. For gastric cancer, multiple retrospective studies have reported the advantages of laparoscopic gastrectomy (LG) over open gastrectomy (OG). A recent meta-analysis of 15 nonrandomized comparative studies has also shown that although LG had a longer operative time than OG, it was associated with lower intraoperative blood loss, overall complication rate, fewer wound-related complications, quicker recovery of gastrointestinal motility with shorter time to first flatus and oral intake, and shorter hospital stay. A randomized prospective trial comparing laparoscopic assisted with open subtotal gastrectomy reported that LG had a significantly lower blood loss (229 ± 144 ml versus 391 ± 136 ml; P< 0.001), shorter time to resumption of oral intake (5.1 ± 0.5 days versus 7.4 ± 2 days; P< 0.001), and earlier discharge from hospital (10.3 ± 3.6 days versus 14.5 ± 4.6 days; P< 0.001).
The operative conduct of the biliary-enteric anastomosis centers around three technical steps: 1) identification of healthy bile duct mucosa proximal to the site of obstruction; 2) preparation of a segment of alimentary tract, most often a Roux-en-Y jejunal limb; and 3) construction of a direct mucosa-to-mucosa anastomosis between these two. Selection of the proper anastomosis is dictated by the indication for biliary decompression and the anatomic location of the biliary obstruction. A right subcostal incision with or without an upper midline extension or left subcostal extension provides adequate exposure for construction of the biliary-enteric anastomosis. Use of retractors capable of upward elevation and cephalad retraction of the costal edges are quite valuable for optimizing visual exposure of the relevant hilar anatomy.
Division of the ligamentum teres and mobilization of the falciform ligament off the anterior surface of the liver also facilitate operative exposure; anterocephalad retraction of the ligamentum teres and division of the bridge of tissue overlying the umbilical fissure are critical for optimal visualization of the vascular inflow and biliary drainage of segments II, III, and IV. Cholecystectomy also exposes the cystic plate, which runs in continuity with the hilar plate. Lowering of the hilar plate permits exposure of the left hepatic duct as it courses along the base of segment IVb. In cases of unilateral hepatic atrophy as a result of long-standing biliary obstruction or preoperative portal vein embolization, it is critical to understand that the normal anatomic relationships of the portal structures are altered. In the more common circumstance of right-sided atrophy, the portal and hilar structures are rotated posteriorly and to the right; as a result, the portal vein, which is typically most posterior, is often encountered first; meticulous dissection is necessary to identify the common bile duct and hepatic duct deep within the porta hepatis.