1.Barium peritonitis--following barium enema of the proximal colon through a colostomy.
Liew NC ; Gee T ; Sandra K ; Gul YA
The Medical Journal of Malaysia 2003;58(5):766-768
Perforation with extravasation of barium is a rare complication of contrast enema examination of the large bowel with a high associated mortality rate. The experience of performing a re-laparotomy in a patient previously exposed to barium peritonitis is even less common. We describe an elderly male patient with a Hartmann's procedure performed a year previously, presenting with peritonitis following barium enema evaluation of the proximal colon via an end descending colon stoma. Emergency laparotomy, segmental bowel resection and liberal peritoneal toilet resulted in a satisfactory outcome. The patient had a subsequent successful reversal of his Hartmann's procedure nine months later despite the presence of dense barium induced adhesions. This potentially preventable iatrogenic complication is discussed in this report, which is supplemented by a brief review of the English literature.
Barium Sulfate/administration & dosage
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Barium Sulfate/*adverse effects
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Colon
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Colostomy
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Enema/*adverse effects
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*Iatrogenic Disease
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Peritonitis/*chemically induced
2.Establishment of a Protocol for Determining Gastrointestinal Transit Time in Mice Using Barium and Radiopaque Markers.
Bolormaa MYAGMARJALBUU ; Myeong Ju MOON ; Suk Hee HEO ; Seo In JEONG ; Jong Seong PARK ; Jae Yeoul JUN ; Yong Yeon JEONG ; Heoung Keun KANG
Korean Journal of Radiology 2013;14(1):45-50
OBJECTIVE: The purpose of this study was to establish a minimally invasive and reproducible protocol for estimating the gastrointestinal (GI) transit time in mice using barium and radiopaque markers. MATERIALS AND METHODS: Twenty 5- to 6-week-old Balb/C female mice weighing 19-21 g were used. The animals were divided into three groups: two groups that received loperamide and a control group. The control group (n = 10) animals were administered physiological saline (1.5 mL/kg) orally. The loperamide group I (n = 10) and group II (n = 10) animals were administered 5 mg/kg and 10 mg/kg loperamide orally, respectively. Thirty minutes after receiving the saline or loperamide, the mice was administered 80 microL of barium solution and six iron balls (0.5 mm) via the mouth and the upper esophagus by gavage, respectively. Afterwards, the mice were continuously monitored with fluoroscopic imaging in order to evaluate the swallowing of the barium solution and markers. Serial fluoroscopic images were obtained at 5- or 10-min intervals until all markers had been excreted from the anal canal. For analysis, the GI transit times were subdivided into intestinal transit times (ITTs) and colon transit times (CTTs). RESULTS: The mean ITT was significantly longer in the loperamide groups than in the control group (p < 0.05). The mean ITT in loperamide group II (174.5 +/- 32.3) was significantly longer than in loperamide group I (133.2 +/- 24.2 minute) (p < 0.05). The mean CTT was significantly longer in loperamide group II than in the control group (p < 0.05). Also, no animal succumbed to death after the experimental procedure. CONCLUSION: The protocol for our study using radiopaque markers and barium is reproducible and minimally invasive in determining the GI transit time of the mouse model.
Analysis of Variance
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Animals
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Barium Sulfate/pharmacology
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Contrast Media/administration & dosage
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Female
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Fluoroscopy
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Gastrointestinal Transit/*physiology
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Iron
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Loperamide/administration & dosage
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Mice
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Mice, Inbred BALB C
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Microscopy, Electron, Scanning
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Prostheses and Implants
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Reproducibility of Results
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Sodium Chloride/administration & dosage
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Surface Properties