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In Almost All instances of Isolated Aortic Valve Disease, the Open Heart Procedure for Replacing the Aortic Valve can be performed with a Minimally-Invasive approach (Mini Sternotomy) the procedure is Safe,Easy and offers the patient Much Less Pain and a cosmetic Scar.
For more information about living liver donor program, please visit https://cle.clinic/31rgy9F
Unlike open surgery that requires a large incision to access the liver, the laparoscopic procedure is performed with surgical tools and a camera inserted through a few half-inch holes in the abdomen of the living donor. Once the piece of the liver is dissected, the surgeon retrieves the graft through a small incision below the navel.
Liver transplant surgeon C.H David Kwon, MD, discusses the laparoscopic liver donor procedure more.
To learn more about Dr. Kwon, please visit https://cle.clinic/3Lvk9cv
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#clevelandclinic #livingdonor #livertransplantation #livertransplant #organdonation #laparoscopicsurgeon #laparoscopysurgery
This video demonstrate Laparoscopic Cholecystectomy Full Length Skin to Skin Video with Infrared Cholangiography performed by Dr R K Mishra at World Laparoscopy Hospital. Infrared Cholegiography is performed by using Indocyanine Green during laparoscopic cholecystectomy surgery for gallbladder removal. Bile duct injury remains the most feared complication of laparoscopic cholecystectomy. Intraoperative cholangiography (IOC) is the current gold standard for biliary imaging and may reduce injury, but is not widely used because of the difficulties of doing it. Near-Infrared Fluorescence Cholangiography (NIRF-C) is a novel non-invasive method for real-time, radiation-free, intra-operative biliary mapping during laparoscopic cholecystectomy. We have experienced that NIRF-C is a safe and effective method for identifying biliary anatomy during laparoscopic cholecystectomy. Indocyanine green is a cyanine dye is very popular and used for many years in medical diagnostics. It is used for determining cardiac output, hepatic function, liver, and gastric blood flow, and for ophthalmic angiography. Now the use of this dye in lap chole has improved the safety of this surgery by NEAR INFRARED FLUORESCENT CHOLANGIOGRAPHY.
For more information please contact:
World Laparoscopy Hospital
Cyber City, Gurugram, NCR DELHI
INDIA 122002
Phone & WhatsApp: +919811416838, + 91 9999677788
UPDATE 1/30/15: Watch the updated version of this animation: https://www.youtube.com/watch?v=LVP6JngpgEE
This 3D medical animation shows how adhesions in the abdomen may cause complications. These problems may include obstruction, twisting, and dislocating areas of the small intestine. Adhesions can be separated with laparoscopic instruments.
ANH00037
A brief description of the mechanisms, types and assessment of chromosomal analyses. Techniques such as standard cytogenetic testing, FISH and array methods are discussed. Indications for testing in prenatal, neonatal and adult periods are also discussed. Deletions, translocations, inversions etc are described, as are mosaicism and aneuploidy.
For patients in extremis from respiratory failure or shock, securing vascular access is crucial, along with establishing an airway and ensuring adequacy of breathing and ventilation. Peripheral intravenous catheter insertion is often difficult, if not impossible, in infants and young children with circulatory collapse. Intraosseous (IO) needle placement, shown in the images below, provides a route for administering fluid, blood, and medication. An IO line is as efficient as an intravenous route and can be inserted quickly, even in the most poorly perfused patients.
The pelvic diaphragm is composed of muscle fibers of the levator ani, the coccygeus, and associated connective tissue which span the area underneath the pelvis. The pelvic diaphragm is a muscular partition formed by the levatores ani and coccygei, with which may be included the parietal pelvic fascia on their upper and lower aspects. The pelvic floor separates the pelvic cavity above from the perineal region (including perineum) below.
The right and left levator ani lie almost horizontally in the floor of the pelvis, separated by a narrow gap that transmits the urethra, vagina, and anal canal. The levator ani is usually considered in three parts: pubococcygeus, puborectalis, and iliococcygeus. The pubococcygeus, the main part of the levator, runs backward from the body of the pubis toward the coccyx and may be damaged during parturition. Some fibers are inserted into the prostate, urethra, and vagina. The right and left puborectalis unite behind the anorectal junction to form a muscular sling . Some regard them as a part of the sphincter ani externus. The iliococcygeus, the most posterior part of the levator ani, is often poorly developed.
The coccygeus, situated behind the levator ani and frequently tendinous as much as muscular, extends from the ischial spine to the lateral margin of the sacrum and coccyx.
The pelvic cavity of the true pelvis has the pelvic floor as its inferior border (and the pelvic brim as its superior border.) The perineum has the pelvic floor as its superior border.
Some sources do not consider “pelvic floor” and “pelvic diaphragm” to be identical, with the “diaphragm” consisting of only the levator ani and coccygeus, while the “floor” also includes the perineal membrane and deep perineal pouch.
A subdural hematoma is most often the result of a severe head injury. This type of subdural hematoma is among the deadliest of all head injuries. The bleeding fills the brain area very rapidly, compressing brain tissue. This often results in brain injury and may lead to death. Subdural hematomas can also occur after a minor head injury. The amount of bleeding is smaller and occurs more slowly. This type of subdural hematoma is often seen in older adults. These may go unnoticed for many days to weeks, and are called chronic subdural hematomas. With any subdural hematoma, tiny veins between the surface of the brain and its outer covering (the dura) stretch and tear, allowing blood to collect. In older adults, the veins are often already stretched because of brain shrinkage (atrophy) and are more easily injured.
http://www.mediplus.co.uk A new and safer method of inserting a Foley catheter suprapubically. The technique allows the insertion to be carried out in an Outpatient setting, thus saving time, cost and effort. By using the Seldinger technique, the product reduces the chances of bowel or bladder perforation and resultant morbidity.
The product has been chosen by The NHS National Technology Adoption Centre to help facilitate adoption of the product.
Bell's palsy is a form of facial paralysis resulting from damage or trauma to the facial nerves. The facial nerve-also called the 7th cranial nerve-travels through a narrow, bony canal (called the Fallopian canal) in the skull, beneath the ear, to the muscles on each side of the face. For most of its journey, the nerve is encased in this bony shell. Each facial nerve directs the muscles on one side of the face, including those that control eye blinking and closing, and facial expressions such as smiling and frowning. Additionally, the facial nerve carries nerve impulses to the lacrimal or tear glands, the saliva glands, and the muscles of a small bone in the middle of the ear called the stapes. The facial nerve also transmits taste sensations from the tongue. When Bell's palsy occurs, the function of the facial nerve is disrupted, causing an interruption in the messages the brain sends to the facial muscles. This interruption results in facial weakness or paralysis. Bell's palsy is named for Sir Charles Bell, a 19th century Scottish surgeon who described the facial nerve and its connection to the condition. The disorder, which is not related to stroke, is the most common cause of facial paralysis. Generally, Bell's palsy affects only one of the paired facial nerves and one side of the face, however, in rare cases, it can affect both sides.
This video demonstrates Laparoscopic Cholecystectomy Fully Explained Skin-to-Skin Video with Near Infrared Cholangiography performed by Dr R K Mishra at World Laparoscopy Hospital. A laparoscopic cholecystectomy is a minimally invasive surgical procedure that involves removing the gallbladder. It is typically performed using small incisions in the abdomen, through which a laparoscope (a thin tube with a camera and light) and surgical instruments are inserted. The surgeon uses the laparoscope to visualize the inside of the abdomen and to guide the instruments in removing the gallbladder.
Near-infrared cholangiography is a technique that uses a special camera and fluorescent dye to visualize the bile ducts during surgery. The dye is injected into the cystic duct (the tube that connects the gallbladder to the bile ducts) and the camera detects the fluorescence emitted by the dye, allowing the surgeon to see the bile ducts more clearly.
The combination of laparoscopic cholecystectomy and near-infrared cholangiography has become a standard of care in many hospitals and surgical centers. It allows for a more precise and efficient surgery, reducing the risk of complications such as bile duct injury.
The use of indocyanine green (ICG) with near-infrared imaging during laparoscopic cholecystectomy has several advantages. Here are some of them:
Better visualization of the biliary anatomy: ICG with near-infrared imaging allows for better visualization of the biliary anatomy during surgery. This helps the surgeon identify important structures, such as the cystic duct and the common bile duct, and avoid injuring them.
Reduced risk of bile duct injury: With better visualization of the biliary anatomy, the risk of bile duct injury during surgery is reduced. Bile duct injury is a serious complication that can occur during laparoscopic cholecystectomy and can lead to long-term health problems.
Improved surgical precision: ICG with near-infrared imaging also improves surgical precision. The surgeon can better see the tissues and structures being operated on, which can help reduce the risk of bleeding and other complications.
Shorter operating time: The use of ICG with near-infrared imaging can shorten the operating time for laparoscopic cholecystectomy. This is because the surgeon can more quickly and accurately identify the biliary anatomy, which can help streamline the surgery.
Overall, the use of ICG with near-infrared imaging is a valuable tool in laparoscopic cholecystectomy that can improve surgical outcomes and reduce the risk of complications.
Like any surgical procedure, laparoscopic cholecystectomy (gallbladder removal) has potential complications. Here are some of the most common ones:
Bleeding: Bleeding during or after the surgery is a possible complication of laparoscopic cholecystectomy. Most cases are minor and can be easily controlled, but in rare cases, significant bleeding may require a blood transfusion or even additional surgery.
Infection: Any surgical procedure carries a risk of infection. After laparoscopic cholecystectomy, there is a risk of infection at the site of the incisions or within the abdomen. Symptoms may include fever, pain, redness, or drainage from the incision sites.
Bile leakage: In some cases, a small amount of bile may leak from the bile ducts into the abdominal cavity after gallbladder removal. This can cause abdominal pain, fever, and sometimes requires further surgery or treatment.
Injury to nearby organs: During the surgery, there is a small risk of unintentional injury to nearby organs such as the liver, intestines, or bile ducts. This can cause additional complications and may require further treatment.
Adverse reactions to anesthesia: As with any surgery requiring general anesthesia, there is a small risk of adverse reactions to the anesthesia, such as an allergic reaction, respiratory problems, or heart complications.
Most patients recover without complications following a laparoscopic cholecystectomy, but it is important to discuss any concerns or questions with your surgeon beforehand.
Contact us
World Laparoscopy Hospital
Cyber City, Gurugram, NCR Delhi
INDIA : +919811416838
World Laparoscopy Training Institute
Bld.No: 27, DHCC, Dubai
UAE : +971525857874
World Laparoscopy Training Institute
8320 Inv Dr, Tallahassee, Florida
USA : +1 321 250 7653
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When a deviated septum is severe, it can block one side of your nose and reduce airflow, causing difficulty breathing. The additional exposure of a deviated septum to the drying effect of airflow through the nose may sometimes contribute to crusting or bleeding in certain individuals. Nasal obstruction can occur from a deviated nasal septum, from swelling of the tissues lining the nose, or from both. Treatment of nasal obstruction may include medications to reduce the swelling or nasal dilators that help open the nasal passages. To correct a deviated septum, surgery is necessar