TRANSESOPHAGEAL ECHOCARDIOGRAPHY (TEE) Transducer TEE Ultrasound Machine Description Performed to assist in the diagnosis of cardiovascular disorders when noninvasive echocardiography is contraindicated or does not reveal enough information to confirm a diagnosis. TEE provides a better view of the posterior aspect of the heart, including the atrium and aorta. It is done with a transducer attached to a gastroscope that is inserted into the esophagus. Indication Confirm diagnosis if conventional echocardiography does not correlate with other findings. Detect and evaluate congenital heart disorders. Detect atrial tumors (myxomas). Detect or determine the severity of valvular abnormalities and regurgitation. Detect subaortic stenosis as evidenced by displacement of the anterior atrial leaflet and reduction in aortic valve flow, depending on the obstruction. Detect thoracic aortic dissection and CAD. Detect ventricular or atrial mural thrombi and evaluate cardiac wall motion after myocardial infarction. Determine the presence of pericardial effusion. Evaluate aneurysms and ventricular thrombus. Evaluate or monitor biological and prosthetic valve function. Evaluate septal defects. Measure the size of the heart’s chambers and determine if hypertrophic cardiomyopathy or heart failure is present. Procedure 1. The client is placed on the examination table in a left side-lying position. 2. The pharyngeal site is anesthetized, and a bite device is plaed in the mouth to prevent damage to the scope if the client bites down. 3. The endoscope with the ultrasound device attached to its tip s inserted 30 to 50 cm to the posterior portion of the heart as in any esophagoscopy procedure. 4. The depth is determined to achieve the position behind the heart. 5. The client is requested to swallow to facilitate placement of the tube as the scope is inserted. 6. When the transducer is in place, the scope is manipulated by controls on the handle to obtain various views of the heart structure. 7. Scanning is provided in real-time images of heart motion and recordings of the images for viewing. 8. Actual scanning is usually limited to 15 minutes or until the desired number of image planes are obtained at different depths of the scope. 9. When the study is completed, the scope is removed and the client is placed in the semi-Fowler’s position to prevent aspiration until the gag reflex returns. Nursing Responsibilities Before the Procedure Explain that transesophageal echocardiography allows visual examination of heart function and structures. Tell the patient who will perform the test, when it’s scheduled, and that he’ll need to fast for 6 hours before the test. Review the patient’s medical history for possible contraindications to the test. Ask the patient about allergies and note them on the chart. Before the test, have the patient remove dentures or oral prostheses and note any loose teeth. Explain to the patient that his throat will be sprayed with a topical anesthetic and that he may gag when the tube is inserted. Tell the patient that an I.V. line will be inserted to administer sedation before the procedure and that he may feel slight discomfort from the tourniquet and needle puncture. Reassure him that he’ll be made as comfortable as possible and that his blood pressure and heart rate will be monitored continuously. Make sure that the patient or a responsible family member has signed an informed consent form. During the Procedure Confirm the patient’s identity using two patient identifiers according to facility policy. Connect the patient to a cardiac monitor, the automated blood pressure cuff, and pulse oximetry probe so that all parameters can be assessed during the procedure. Help the patient lie down on his left side and administer the prescribed sedative. The back of the patient’s throat is sprayed with a topical anesthetic. A bite block is placed in his mouth, and he’s instructed to close his lips around it. A gastroscope is introduced and advanced 12” to 14” (30 to 35 cm) to the level of the right atrium. To visualize the left ventricle, the scope is advanced 16” to 18” (40 to 45 cm). After the Procedure Ultrasound images are recorded and then reviewed after the procedure. Monitor the patient’s vital signs and oxygen levels for any changes. Keep the patient in a supine position until the sedative wears off. Encourage the patient to cough after the procedure while lying on his side or sitting upright. TRANSTHORACIC ECHOCARDIOGRAPHY (TTE) Transducer TTE Ultrasound Machine Description A noninvasive ultrasound procedure that is used to measure the ejection fraction and examine the size, shape, and motion of cardiac structures. Uses high-frequency sound waves of various intensities to assist in diagnosing cardiovascular disorders. The procedure records the echoes created by the deflection of an ultrasonic beam off the cardiac structures and allows visualization of the size, shape, position, thickness, and movement of all four valves, atria, ventricular and atria septa, papillary muscles, chordae tendineae, and ventricles. This procedure can also determine bloodflow velocity and direction and the presence of pericardial effusion during the movement of the transducer over areas of the chest. Indication Detect atrial tumors (myxomas). Detect subaortic stenosis Detect ventricular or atrial mural thrombi and evaluate cardiac wall motion after myocardial infarction. Determine the presence of pericardial effusion, tamponade, and pericarditis. Determine the severity of valvular abnormalities such as stenosis, prolapse, and regurgitation. Indication Evaluate congenital heart disorders. Evaluate endocarditis. Evaluate or monitor prosthetic valve function. Evaluate the presence of shunt flow and continuity of the aorta and pulmonary artery. Evaluate unexplained chest pain, electrocardiographic changes, and abnormal chest x-ray Evaluate ventricular aneurysms and/or thrombus. Measure the size of the heart’s chambers and determine if hypertrophic cardiomyopathy or heart failure is present. Procedure 1. A conductive gel is applied to the chest. A transducer is then placed on the chest surface along the left sternal border, the subxiphoid area, suprasternal notch, and supraclavicular areas to obtain views and tracings of the portions of the heart. These areas are scanned by systematically moving the probe in a perpendicular position to direct the ultrasound waves to each part of the heart. 2. Different views or information can be obtained about heart function by positioning the patient on the left side and/ or sitting up, or requesting the patient breathe slowly or hold his or her breath during the procedure. To evaluate heartfunction changes, the patient may be asked to inhale amyl nitrate (vasodilator). 3. Contrast medium may be administered if ordered. A second series of images is obtained. 4. Once the study is completed, the needle is removed and a pressure dressing is applied over the puncture site. Nursing Responsibilities Before the Procedure Inform the patient this procedure can assist in assessing heart function. Review the procedure with the patient. Address concerns about pain and explain that there may be some moments of discomfort or pain experienced when the IV line is inserted to allow infusion of fluids such as saline, anesthetics, sedatives, contrast, medications used in the procedure, or emergency medications. Instruct the patient to remove jewelry and other metallic objects from the area to be examined. Positioning for this study is in a supine position on a flat table with foam wedges to help maintain position and immobilization Explain that the chest will be exposed to allow attachment of electrocardiogram leads for simultaneous tracings, if desired. During the Procedure Evaluate for the presence of other risk factors, such as family history of heart disease, smoking, obesity, diet, lack of physical activity, hypertension, diabetes, previous myocardial infarction (MI), and previous vascular disease, which should be investigated. Understanding genetics assists in identifying those who may benefit from additional education, risk assessment, and counseling. After the Procedure Activity: Pace activities to match energy stores and provide assistance to complete activities of daily living. Assess current level of activity to determine a baseline, and assess response to activity. Evaluate oxygen needs in relation to activity. Encourage the use of assistive devices. Excess Fluid Volume: Administer ordered diuretics and weigh every day at the same time. Evaluate for edema in the extremities; assess breath sounds for congestion (crackles), shortness of breath, use of accessory muscles, and nasal flare. Limit fluid as ordered. Inadequate Cardiac Output: Monitor vital signs: heart rate, blood pressure, and respiratory rate. Monitor for ECG changes, decreased urinary output, changes in level of consciousness, shortness of breath, cyanosis, pallor, and cool skin. Complete a daily weight, pace activities, use pulse oximetry to monitor oxygenation and administer oxygen as ordered. CONTINUOUS RENAL REPLACEMENT THERAPY (CRRT) Description: The critical care nurse will monitor CRRT, a continuous therapy that may last for many days and is a slower kind of dialysis that is less taxing on the heart. For unstable patients in the ICU whose bodies cannot withstand routine dialysis. In order to prevent clotting in the dialysis circuit, specific anticoagulation is required. CRRT is accomplished by insertion of a large-gauge double-lumen catheter into the internal jugular, subclavian, or femoral vein. Indications: • Uremia • Encephalopathy • Metabolic Acidosis • Volume Overload • Pericarditis • Hyperkalemia • Drug & Toxin Removal • Hemodynamic Instability Procedures: 1. Perform hand hygiene, don appropriate PPE including mask with face shield. 2. Ensure CRRT circuit has been primed and flow rates programmed. 3. Don non-sterile gloves and remove gauze and tape that is surrounding the catheter limbs and discard. Place a nonsterile waterproof pad under the dialysis limbs to protect the bed linen. 5. Prepare the catheter by applying gloves and using 4x4 sterile gauze. 6. Cleanse the catheter. 7. Clean the sterile field. With your dominant hand, grab the blue sterile towel by the edge and open it up. Place it on top of the waterproof (white) towel. Discard the gauze. Rest the limbs on the sterile towel. 9. Prepare Access Limb. Ensure that the clamp on the access limb (red) is closed. 10. Withdraw Blood. Open the clamp and vigorously aspirate 5 mL of blood. 11. Reclamp the limb and check for clots. 12. Confirm adequacy of flow rate and flushes with saline. 13. Repeat for return limb. 14. Connect the Circuit Nursing Responsibilities: Respiratory: Dialysis can cause changes in a patient’s fluid balance; therefore, it is important to closely monitor: respiratory effort, the use of accessory muscles, signs of tachypnea, distress, fatigue and signs of infection Positioning: Patients still need to be turned at least every 2 hours to maintain good skin integrity. They are often at a higher risk of pressure ulcers due to their compromised state. Neuro: Assess for reduced levels of consciousness, increased restlessness, agitation and aggression are indications of neurological status changes. These changes result from raised creatinine levels, slow excretion of sedatives and levels of pain. Cardio: Accurate recording of fluid levels is important, to ensure that the patient does not become hyper - or hypovolemic; the patient relies on external forces to control their internal environment. Psychosocial: A patient undergoing CRRT will be concerned, and possibly anxious, about the machine. The presence of uncontrolled pain will add to these fears, as will the lack of control over what is happening to their body. Regular education of the patient and family is of utmost importance. CRANIOTOMY Description: Craniotomy is the surgical opening of the skull to gain access to intracranial structures to perform a biopsy, remove a tumor, relieve increased ICP, evacuate a blood clot, evaluate and treat the means of burr holes (made with a drill or hand tools) or by making a bony flap. Indications: • Tumors • Brain Aneurysm • Depressed Skull fracture • Volume Overload • CSF leak repair • Vascular Malformations • Brain Abscess • Intracranial foreign bodies Procedures: 1. Once the patient is under anesthesia, the correct position of the head is fixed depending on the approach to be utilized. It is of utmost importance to avoid any pressure points on vulnerable body areas by adequately padding throughout. The location of the incision for the craniotomy depends on the part of the brain to be operated on. If the surgical craniotomy is assisted by neuronavigation, anatomical points are confirmed before the incision at this time. 2. After the skin incision is made, the muscles below the scalp are dissected to expose the skull. Retractors can be placed on the edges of the incision to have adequate exposure to the surgical area to be focused on. Alternatively, fish hook retractors or sutures can be used to hold the scalp flap. The pericranium can be separated to be used as a dural substitute if necessary, during the closure. Several burr holes are made into the skull utilizing the craniotome or cranial drill. Caution has to be employed to avoid plunging the craniotome into the brain tissue. 3. The holes are cleaned from any bone fragment, and the dura is separated with a Freer elevator or Penfield dissector. The burr holes are connected with a craniotome saw, and a bone flap is elevated after carefully separating it from the dura matter below. The bone flap is held in the surgical instrument table until the closure portion of the surgery. For the intradural procedure, the dura is cut and retracted, exposing the brain 4. Once the surgery on the brain concludes, the bone is reattached in position with plates and screws. Adequate hemostasis should be obtained before closing the scalp. The overlying tissues are reattached, and the scalp is then sutured in anatomical layers. Depending on the surgeon’s preference, a subdural or subgaleal drain can be left in place to drain the accumulated blood products. Nursing Responsibilities: Respiratory status is assessed by monitoring rate, depth, and pattern of respirations. A patent airway is maintained. Vital signs and neurologic status are monitored using a facilitybased neurologic assessment tool; findings are documented. Arterial line may be used for blood pressure monitoring. Pharmacologic agents may be prescribed to control increased ICP. Incisional and headache pain may be controlled with analgesic such as an opioid or acetaminophen, as prescribed. Monitor response to medications. Position head of bed at 15 to 30 degrees, or per clinical status of the patient, to promote venous drainage. Turn side to side every 2 hours; positioning restrictions will be ordered by the health care provider (craniectomy patients should not be turned on the side of the cranial defect). CT scan of the brain is performed if the patient’s status deteriorates. MECHANICAL VENTILATION Description A mechanical ventilator is a machine that helps a patient breath (ventilate) when they are having surgery or cannot breathe on their own due to a critical illness. The purpose of positive-pressure mechanical ventilation is to improve gas exchange in the lungs by producing positive intrathoracic pressure and positive airway pressure and decrease the work of breathing. Indication respiratory or ventilatory failure evidenced by: hypoxemia metabolic acidosis respiratory acidosis inadequate tissue oxygenation Surgical procedures Procedure 1. Verify the practitioner’s order. 2. If the patient isn’t already intubated, prepare the patient for intubation. 3. intubation 3. Gather and prepare the necessary equipment. 4. Perform hand hygiene. 5. Assist with intubation (if necessary) and then connect the ET tube to the ventilator circuit. Trace the ventilator circuit from the patient to its point of origin 6. Observe for chest expansion, and auscultate for bilateral breath sounds to verify that the patient is being ventilated. 7. Position the patient with the head of the bed elevated 30 to 45 degrees, unless contraindicated by the patient’s condition. If the patient can’t bend at the waist, use reverse Trendelenburg position 8. Suction the patient’s airway when necessary to maintain airway patency Nursing Responsibilities Before the Procedure Verify the practitioner’s order. Gather and prepare the necessary equipment. Put on gloves and other personal protective equipment as needed to comply with standard precautions. As the patient’s condition allows, perform a complete physical assessment, and obtain blood During the Procedure Trace the ventilator circuit from the patient to its point of origin to make sure it’s connected properly. Observe for chest expansion, and auscultate for bilateral breath sounds to verify that the patient is being ventilated After the Procedure Position the patient with the head of the bed elevated 30 to 45 degrees, unless contraindicated by the patient’s condition, to reduce the risk of aspiration and consequent ventilatorassociated pneumonia (VAP). Confirm that written informed consent has been obtained by Monitor the patient’s oxygen saturation level by pulse oximetry; make sure that the alarm limits are set appropriately for the patient’s current condition. Check the ventilator tubing frequently for condensation, which can cause resistance to airflow and which the patient may aspirate staff. Monitor the patient’s ABG values Change, clean, or dispose of the ventilator tubing and equipment when it’s visibly soiled or malfunctioning Perform hand hygiene. Clean and disinfect your stethoscope using a disinfectant pad. Perform hand hygiene. Document the procedure INTRA-AORTIC BALLOON PUMP (IABP) THERAPY Description Also called Intra-Aortic Balloon Counterpulsation. It is a mechanical circulatory support device which temporarily supports cardiac function, allowing the heart to gradually recover by decreasing myocardial workload and oxygen demand and increasing perfusion of the coronary arteries. Indication Acute Myocardial Infarction Refractory Left Ventricular Failure Cardiogenic Shock Refractory Ventricular Arrhythmias Acute Mitral Regurgitation and Ventricular Septal Defect Cardiomyopathies Sepsis Refractory Unstable Angina Complex Cardiac Anomalies (In Infants and Children) Cardiac Surgery Cardiac Catheterization and Angioplasty Weaning from Cardiopulmonary Bypass. Procedure 1. Prepare patient in the room 2. Shave the patient’s groin. 3. Place the bed side table in an appropriate position for the procedure 4. Before the provider is at the bed side, the nurse may set up the console and prepare the appropriate equipment. Single transducer Saline Pressure Bag Mask Bonnet Gauze Leads Central insertion kit Gloves Balloon Pump Kit 5. Plug in the balloon pump console and position it out of the way but accessible 6. Turn on the machine. 7. Place the EKG leads on the patient as soon as possible. (This is imperative that this be completed prior to the provider draping the patient and preparing the sterile field) 8. Ensure that the leads are connected to the console. 9. Prime and hang a single transducer set-up. Untangle the tubing and hang it for it to be accessible when the provider is ready to connect. 10. Connect the transducer cables between tubing and console 11. Zero the transducer to get a pressure reading. 12. Take note that there is no need to level if using a fiber-optic balloon. 13. Ensure the setup is in Auto and one-to-one configuration. 14. Console is automatically in standby and can stay for hours. 15. Do not press ‘Start’ 16. Assess patient’s needs prior to the time of insertion. Assist on setting up the ultrasound opposite to the provider. Put on a cap, a mask with a face shield or a mask and goggles, a sterile gown, and sterile gloves to comply with maximal barrier precautions. The practitioner puts on a cap, a mask with a face shield or a mask and goggles, a sterile gown, and sterile gloves. The practitioner then cleans the site with chlorhexidine based antiseptic solution and drapes the patient using a sterile drape and observing maximal barrier precautions. Assist the practitioner in placing the probe cover on the ultrasound probe in a sterile manner. Remember to not touch the inner contents. Afterwards, the nurse will provide the inner contents of the balloon pump kit to the practitioner. Connect the pressure tubing. This is where it comes in key that the nurse will hang the tubing accessible. Do not make contact to the practitioner’s tubing Flush at the direction of the practitioner of the provider. While the practitioner is on the balloon pump, the nurse should remain on alert for any assistance that is required. Monitor the patient for discomfort and his hemodynamic stability. Connect the fiber-optic line to the balloon console Flush the pressure the line. Make sure the monitor is viewable Nursing Responsibilities Before the Procedure Verify the practitioner’s order. Gather and prepare the appropriate equipment. Make sure that the emergency equipment, suction setup, and temporary pacemaker setup are readily available in case the patient develops complication (such as an arrhythmia) during insertion. practitioner and that the signed consent form is in the patient’s medical record. Conduct a preprocedure verification to make sure that all relevant documentation, related information, and equipment are available and correctly identified to the patient’s identifiers. Verify that a complete blood count, coagulation studies, and other ordered studies have been completed as ordered to check for conditions that may increase the risk of bleeding. Ensure that the results are in the patient’s medical record. Notify the practitioner of unexpected results. Confirm the patient’s identity using at least two patient identifiers Provide client privacy. Raise the bed to waist level when providing patient care to prevent caregiver back strain During the Procedure Obtain the patient’s baseline vital signs and oxygen saturation by pulse oximetry for baseline comparison. Administer supplemental oxygen as ordered and as necessary. Remove excess hair from the intended insertion site, if needed, using a single-patient-use scissors. Assess and record the patient’s peripheral leg pulses and document sensation, movement, color, and temperature of the legs to help determine peripheral circulation status and the best insertion site. Administer a sedative or an analgesic, as ordered, following safe medication administration practices. Position the patient supine with access to the insertion site. Perform hand hygiene. Make sure the health care team follows infection prevention practices; use an insertion checklist to guide the insertion process to reduce the risk of infection. process to reduce the risk of infection. After the Procedure Monitor the patient’s vital signs, hemodynamic parameters, and clinical status at a frequency determined by your facility and the patient’s condition Return the bed to the lowest position to prevent falls and maintain patient safety. Discard used supplies appropriately. Remove and discard your personal protective equipment. Perform hand hygiene. KIDNEY TRANSPLANT Description Kidney transplantation has significantly improved the quality of life for many patients with chronic renal disease. Patients may choose to accept transplantation rather than remain on hemodialysis for the rest of their lives. Indication Indication for transplantation is end-stage renal disease, most often glomerulonephritis, pyelonephritis, polycystic disease, or nephrosclerosis Procedure TRANSPLANT FROM LIVING DONOR Open Approach 1. The donor nephrectomy procedure is as described for nephrectomy; however, the ureter and renal vein and artery require meticulous dissection. 2. Maximum length of the ureter is achieved by dividing it at or below the pelvic rim if possible. To preserve adequate ureteral vascularization, the surgeon is cautious not to skeletonize the ureter. Procedure 3. Particular care is taken to remove the maximum length of the renal vein and artery. Obtaining the maximum length of the left renal vein sometimes requires partial occlusion of the inferior vena cava with a Satinsky clamp and dissection of a portion of the inferior vena cava. This is done after the ureter has been freed. 4. Repair of the inferior vena cava is made with a continuous 4- 0 or 5-0 vascular suture. 5. Five minutes before the surgeon clamps the renal vessels, 5000 units of heparin sodium and 12.5 g of mannitol are systemically administered to the patient to prevent intravascular clotting and maximize diuresis. 6. Furosemide, mannitol, and IV fluids are administered to the donor to maintain adequate urinary output from the donor's remaining kidney. 7. Gentle handling of the kidney is essential. Team members must prevent undue traction on the vascular pedicle, which may induce vasospasm and reduce perfusion of the kidney. 8. To reduce warm ischemia time the surgeon double-clamps the vein and the artery, excises the kidney, and immediately places it in iced saline solution on a sterile back table, where the kidney is flushed with the designated electrolyte solution. Warm ischemia time (from the clamping of renal vessels to a point at which the kidney is perfused with cold electrolyte solution) should be kept to a minimum to prevent acute tubular necrosis and to maintain maximum renal function after transplantation. 9. Gerald forceps are used to expose the renal artery to permit insertion of an olive tip or. smooth Christmas tree cannula. The cold electrolyte solution passes through the IV tubing and the needle catheter, flushing any remaining donor's blood from the kidney. This also decreases the kidney's metabolic rate by lowering its temperature. Flushing time is usually 2 to 5 minutes. 10. After flushing the surgeon may trim the vessels of adventitia to facilitate the vascular anastomosis to the recipient's iliac vessels. 11. The kidney, in iced saline solution and HTK or UW solution, is covered with sterile drapes and taken by the surgeon to the room in which the recipient's iliac vessels have been exposed. 12. Wound closure for the donor is as described for nephrectomy. Hand-Assisted Laparoscopic Approach. 1. The surgeon creates a supraumbilical incision for the hand port. After the hand-port is placed, a 10-mm trocar is placed through the hand-port to introduce pneumoperitoneum. A camera is introduced through the trocar to directly visualize the placement of the 5-mm working port, approximately two fingerbreadths cephalad to the hand-port. The 10-mm camera port is placed three fingerbreadths inferior to the xiphoid. An additional 5-mm trocar may be placed in the flank at the convex border of the kidney if extra retraction is necessary. 2. A bipolar ESU is used to incise the left lateral peritoneal reflection. 3. The descending colon is reflected medially from the beginning of the splenic flexure down to the level of the sigmoid colon, incising the phrenocolic ligaments completely. Care is taken to ensure no bowel injury or mesenteric defect occurs. 4. The surgeon divides the lienorenal and splenocolic ligaments at the inferior border of the spleen, allowing the spleen to be retracted superiorly and to mobilize the splenic flexure medially. 5. Gerota fascia is exposed by mobilizing the descending colon medially. 6. The plane is developed between Gerota fascia and the mesentery, adjacent to the lower pole of the kidney. 7. The plane medial to the gonadal vein and the ureter is developed and the structures are dissected off the psoas muscle, taking care not to devascularize the ureter. 8. The surgeon continues to dissect the medial aspect of the upper pole of the kidney, which is mobilized until the upper pole is completely free. 9. The left renal vein is then freed from its adventitial attachments and the adrenal and lumbar veins are identified, doubly clipped on both sides, and divided between clips. 10. After elevating the kidney, the surgeon performs additional dissection, usually posteriorly to the renal vein to identify and isolate the renal artery and after dividing the fibro-fatty and lymphatic tissue around the vessels. 11. The renal artery is dissected out, taking care to ensure there is space to pass the endovascular gastrointestinal anastomosis (GIA) stapler around the artery and vein. 12. The entire kidney is then freed of all its adventitial attachments. 13. The anesthesia provider administers 40 mg of furosemide (Lasix) and 12.5 mg of mannitol and 3000 units of heparin via the patient's IV. 14. Next the gonadal vein is double clipped and divided and the ureter is triple clipped and divided at the level of the iliac vessels. 15. After 3 minutes of systemic heparinization, the renal artery and vein are transected individually and sequentially with the endovascular GIA stapler. 16. The kidney is placed in the large basin with iced saline and flushed on the back table with 1 L of cold HTK or UW solution. 17. After the kidney is flushed, as described in the open donor nephrectomy, the kidney basin is covered with a drape and taken to the recipient OR. 18. The surgeon irrigates the peritoneum and achieves hemostasis. A drain may be inserted into the peritoneal space for a short time postoperatively. 19. The wounds are sutured and dressings applied. TRANSPLANT FROM CADAVERIC DONOR 1. The surgeon makes a midline incision from the xiphoid process to the symphysis pubis with bilateral supraumbilical transverse extensions through the skin, subcutaneous layer, fascia, and muscle. 2. Hemostasis is obtained with clamps, ties, suture ligatures, and the ESU. 3. The kidney, renal vessels, and ureter are carefully dissected with Metzenbaum scissors, DeBakey forceps, and Dean hemostatic forceps. 4. The anesthesia provider administers 15,000 units of heparin sodium IV 5 to 10 minutes before the renal vessels are clamped. 5. The usual method of resection is en bloc resection (harvesting of donor kidneys) which involves the removal of sections of the inferior vena cava and aorta with both kidneys in continuity 6. The surgeon makes an incision along the route of the small bowel mesentery up to the esophageal hiatus. 7. Next, the surgeon mobilizes the entire GI tract, spleen, and inferior portion of the pancreas dividing the celiac axis and the superior mesenteric artery, exposing the entire retroperitoneal region. 8. Using vascular clamps, the surgeon clamps and divides the inferior vena cava and aorta below the renal vessels. 9. The surgeon secures the lumbar tributaries with metal clips and divides them. 10. The kidneys and ureters are freed from their surrounding soft tissues. 11. The ureters are divided distally at the pelvic brim. 12. The surgeon clamps and divides the suprarenal aorta and inferior vena cava at the level of the diaphragm, close to the bifurcation. 13. The surgeon severs the vessels and kidney and ligates the aorta and vena cava. 14. 14. After removal of the kidneys, immediate perfusion with cold (4°C [29.2°F]) UW or electrolyte solution is performed. The kidneys are placed in a container of cold saline solution and surrounded by saline slush in an insulated carrier or placed on a hypothermic pulsatile perfusion machine for transport. While kidney perfusion is begun, the abdominal lymph nodes and spleen are removed for use in tissue typing. 15. The incision is closed with interrupted sutures, and the patient's artificial life-support systems are terminated. The perioperative nurse cares for the patient's body, preserving privacy and dignity at the patient's death. TRANSPLANT RECIPIENT 1. The surgeon makes a curved right lower quadrant incision through the skin, subcutaneous layer, fascia, and muscle. 2. Bleeding is controlled with clamps, ties, and an ESU. 3. The inferior epigastric vessels are divided between suture ligatures. 4. Retroperitoneal dissection is performed by mobilizing the peritoneum superiorly and medially. 5. A self-retaining Bookwalter retractor is placed once exposure is attained. 6. Using Metzenbaum scissors and DeBakey forceps, the surgeon dissects along the entire length of the hypogastric artery and the external and common iliac arteries to the bifurcation of the aorta, continuing down the internal iliac artery. 7. The internal iliac artery is ligated distally and divided, with proximal control maintained by a vascular clamp 8. The iliac vein may be dissected free by ligating and dividing the internal iliac venous branches with 3-0 nonabsorbable sutures or ligating clips. More commonly, only the hypogastric artery and that portion of iliac vein to be anastomosed are dissected free. 9. The donor kidney is brought into the operative field in a large basin of iced saline and HTK or UW solution. 10. The surgeon uses mosquito hemostats, 4-inch DeBakey forceps, and curved and straight fine scissors to make the necessary alterations on the donor kidney vessels to facilitate the anastomoses. 11. A Lambert Kay clamp is placed on the internal iliac vein. 12. A #11 blade is used to make a 1-cm incision in the iliac vein between the clamps. 13. The vessel is rinsed with heparin sodium solution (10 units/mL) in a 30-mL syringe with an olive tip. 14. Angled Potts scissors are used to extend the incision to accommodate the donor renal vein. 15. The surgeon performs the anastomosis of the donor kidney renal vein to the side of the recipient's iliac vein with 5-0 double armed vascular sutures. 16. In like manner the renal artery is anastomosed end-to-end with the proximal portion of the internal iliac artery using 50 vascular sutures. 17. Before placing the final sutures, the vessels are irrigated proximally and distally with heparin sodium solution with a 30-mL syringe with an olive tip. 18. The Lambert Kay clamps are removed from the venous vessels, and the anastomosis is checked for leakage. 19. The clamp on the internal iliac artery is then released, and the anastomosis is checked. 20. Meticulous inspection is made of the hilum and surface of the kidney for bleeding and infarction. 21. The anesthesia provider administers diuretics intravenously as needed. 22. Attention is then directed to the ureter and bladder. 23. Two Gerald forceps are used to grasp the anterior bladder wall. 24. Using a scalpel with a #10 blade, the surgeon makes a 4cm anterior incision. 25. The ureter is passed through the bladder wall and tunneled suburothelially for 2 to 2.5 cm. 26. The surgeon sutures the spatulated end of the ureter into the bladder urothelium with four to six 5-0 atraumatic absorbable sutures, creating a ureteroneocystostomy. 27. A 6F ureteral stent is passed through the ureteroneocystostomy, up to the renal pelvis, and out through the urethra with the Foley catheter. This stenting catheter will remain in place for 36 to 48 hours to ensure ureteral patency during a period in which ureteral edema may occur. 28. Retractors are removed, and the bladder is closed with 5-0 atraumatic absorbable suture. 29. The renal anastomoses are again checked for bleeding. 30. The cystoscopy tubing is disconnected from the Foley catheter and a urometer is attached to the Foley catheter to monitor postoperative urine output. 31. The surgeon inserts closed-wound suction drains into the wound, exteriorizes them through the skin laterally, and secures the tubing with 2-0 nonabsorbable suture on a cutting needle. 32. Muscle and fascial layers are closed with a single layer of 0 nonabsorbable sutures on a large atraumatic needle. 33. The subcutaneous layer is closed with 3-0 absorbable sutures on an atraumatic needle. 34. Skin closure is accomplished with skin staples, and dressings are applied. NURSING RESPONSIBILITIES TRANSPLANT DONOR Two adjacent ORs are prepared for the procedures because surgery on the donor and surgery on the recipient proceed simultaneously. Usually the left kidney is chosen for removal because the left renal vein is longer than the right renal vein. Two IV lines and a Foley catheter are required. The patient is placed on a beanbag positioning device and moved into a modified flank position with the torso in a 30-degree lateral decubitus position with the right side down after endotracheal intubation. The lower arm is positioned extended outward on a well-padded armboard at a right angle to the torso; the upper arm is positioned on an elevated lateral armboard. The patient’s hips are rolled slightly posteriorly to allow exposure of the lower abdominal midline. Three pillows are placed between the patient's legs, and the ankles and feet are appropriately padded. An axillary roll is also placed and the radial pulse is confirmed in the right wrist. The bed is flexed to 30 degrees, and the upper portion is angled downward to approximately 140 degrees. The skin is prepped from midchest to pubis and draped to expose the flank area. An electrolyte solution of histidine-tryptophan-ketoglutarate (HTK) or University of Wisconsin (UW) solution that contains 10,000 units of heparin is used to flush the harvested kidney TRANSPLANT RECIPIENT The perioperative nurse places the patient in the supine position and inserts a Foley catheter into the bladder. Approximately 100 mL of antibiotic mixed in an IV bag of 0.9% normal saline is instilled into the bladder through cystoscopy tubing. The bladder is filled and drained four times. The fifth instillation of 100 mL is left in the bladder and the cystoscopy tubing is clamped until the time of the ureteral anastomosis. The patient is prepped from nipples to groin and draped. LIVER TRANSPLANT Description Liver transplantation is implantation of a liver from a donor into a recipient. The procedure includes retrieving or procuring the liver from a donor, transporting the donor liver to the recipient's hospital, performing a hepatectomy on the recipient, and then implanting the donor liver Indication Liver transplantation is indicated for patients with chronic hepatocellular disease, chronic cholestatic disease, metabolic liver disease, primary hepatic cancer, acute fulminant liver disease, and inborn errors of metabolism. When malignancies are the cause of end-stage liver disease, the right upper quadrant may be radiated intraoperatively—after hepatectomy and before transplantation Procedure 1. Bilateral subcostal incisions are made with a midline incision extended toward the umbilicus. If necessary, the xiphoid is removed. The right side of the chest is entered if additional exposure is needed. 2. Initial dissection of the underlying tissues is achieved with electrosurgery and suture ligatures. 3. Isolation of all hilar structures and dissection to mobilize the lobes of the native liver are performed. 4. The retrohepatic vena cava is skeletonized, as are the hepatic artery, portal vein, common bile duct, and inferior vena cava. 5. The donor liver is examined. 6. Preparations may be made at this time for venovenous bypass using an extracorporeal assist device if the patient is unstable. 7. The infrahepatic vena cava and the suprahepatic vena cava are clamped, as are the portal vein, the hepatic artery, and the common bile duct. 8. Native hepatectomy is then performed. 9. The donor liver is placed in the right upper abdomen, and revascularization of the donor organ begins with end-to-end anastomoses in the vena cava and portal vein, with double-armed fine vascular suture. 10. At this point the clamps on the portal vein, suprahepatic vena cava, and infrahepatic vena cava are released slowly, and blood flow through the vena cava and portal vein is restored. 11. The anastomosis sites are checked for leaks. 12. If it was used, venovenous bypass is discontinued, and the cannulation sites are closed. 13. The postrevascularization phase focuses on achieving hemostasis. Complete hemostasis may require extensive time at this point. Bleeding may be exacerbated by a fibrinolytic episode associated with the reperfusion of the donor organ. The liver is monitored for a change in color from dusky to pink. An intraoperative Doppler may be used to confirm patency of the blood supply. 14. The anastomosis of the hepatic artery is then commenced, followed by bile duct reconstruction. This varies with the status of the recipient’s biliary tract. If biliary atresia is the cause of the patient's end-stage liver disease, choledochoenterostomy into a Roux-en-Y loop of jejunum is performed. 15. The anastomoses are checked for leaks. 16. Drains are placed behind and in front of the liver and exteriorized. The abdomen is then closed. Nursing Responsibilities Communication Among Teams. Patient Positioning. - - - - - The patient is placed supine with knees slightly flexed and padded. An indwelling urinary catheter is inserted after induction of anesthesia. Accurate body alignment is essential. A gel pad that is the length of the OR bed or a pressure-reducing OR bed mattress is used, with attention to all potential pressure areas. Heel protectors are applied and IPCDs are placed on the patient's legs. The safety strap is placed over the lower part of the thighs and secured. A forced-air warming device is applied over the upper body, neck, and head to assist in maintaining normothermia. Fluid warmers are used to warm blood products and IV solutions. Skin Preparation. - - The patient is prepped from the neck to midthigh, bedline to bedline. Prep solution should not pool at the bedline or wet the sheets on the OR bed. Fire safety precautions for prep solutions are followed. Blood Loss and Replacement. - - - Blood loss may be extensive and replacement must be timely. The perioperative nurse confirms that blood products are available at the beginning of the procedure (this may be incorporated into the time-out). These include 10 units each of packed red blood cells (RBCs) and fresh frozen plasma (FFP) and 1 unit of pooled donor platelets. The perioperative nurse remains available to assist the anesthesia provider during the insertion of peripheral and arterial lines. An autologous cell-saver device may be used to assist in blood replacement by way of autotransfusion. The perioperative nurse ensures that communication occurs among teams. Coordination among the procurement team, anesthesia team, and surgical teams is essential for a successful transplant procedure. Perioperative nursing responsibilities also include monitoring and communicating blood-loss volume in suction canisters and on sponges, the availability of blood and blood products, laboratory results, time of organ arrival, ischemic time, and other events as they unfold in preparation for and during the transplant procedure LUNG TRANSPLANT Description Lung transplantation currently offers the only definitive treatment for CF. Lung transplantation lengthens lifespan and improves quality of life. Single-lung, double-lung and heart–lung trans plants have been successfully completed. Because the donor lungs do not have the CF geneimplanting the donor liver Indication Indications for single-lung transplantation (SLT) include restrictive lung disease, emphysema, pulmonary hypertension, and other nonseptic end-stage pulmonary diseases. Double-lung transplantation (DLT) can be performed for many of these indications and is specifically indicated for patients with cystic fibrosis or patients with a chronic infection in end-stage pulmonary failure Procedure DONOR HARVESTING 1. The patient's skin is prepped from chin to knees and laterally to the midaxillary line. A median sternotomy incision is most commonly used. A thoracotomy may also be used. 2. The surgeon opens the pleura longitudinally posterior to the sternum, and divides the pericardium back to the hilum on both adhesions are incised, and the proximal pulmonary arteries are dissected at their origin. The inferior pulmonary ligament is dissected, pleural adhesions are incised, and the proximal pulmonary arteries are dissected at their origin. pericardially; the pulmonary artery is isolated as close to the lung as possible. The surgeon may ligate and divide the azygos vein for additional exposure; the pulmonary artery is dissected. 3. After heparinization and hypotensive anesthesia, the superior vena cava is ligated and divided and heavy silk ties are placed around each vessel. 3. If the left lung is being removed, the ligamentum arteriosum is divided. 4. The surgeon dissects the aortic arch free, and divides the ligamentum arteriosum. The anterior and inferior margins of the pulmonary artery are separated from the main artery and ascending aorta. Umbilical tapes are placed around the pulmonary artery and aorta. A purse-string suture is placed for infusion of the cardioplegia solution in the heart. 5. After cardioplegia and pulmoplegia are established, the heart is prepared for removal; veins and arteries are separated, and the heart is removed and placed in cold preservation solution. 4. The anesthesia provider collapses the lung to be removed, and the proximal pulmonary artery is occluded. If instability occurs after occlusion, CPB may be required. In some cases femoral bypass is initiated. If the patient remains stable, the pneumonectomy is performed. 5. Pulmonary veins are divided extrapericardially. The first branch of the pulmonary artery and descending branch are separated. The blood supply to the bronchus is preserved by not dissecting tissue around the bronchus. 6. Using blunt and sharp dissection, the surgeon dissects the pulmonary arteries free from the mediastinum to the hilum anteriorly and then posteriorly to the anterior aorta and hilum. The trachea is dissected free. The lungs are inflated before stapling and dissection. The lungs are removed and immersed in cold preservation solution. 6. The surgeon divides the bronchus and removes the lung. The pericardium is opened around the pulmonary veins to allow room for the atrial clamp. 7. The team provides postmortem care for the donor. 8. Three anastomoses are completed for an SLT: bronchus to bronchus, pulmonary artery to pulmonary artery, and recipient pulmonary veins to donor atrial cuff. Techniques used to minimize bronchial anastomotic complications include shortening the donor bronchial stump, reinforcing the anastomosis with a vascularized tissue pedicle such as omentum or intercostal muscle pedicle flap, or using an intussuscepting bronchial anastomosis technique. RECIPIENT PREPARATION AND TRANSPLANTATION 1. The perioperative nurse assists with positioning the patient laterally for SLTs or in the supine position for bilateral lung transplants. The nurse also performs a wide skin prep for exposure of the chest and abdomen (nipple line to knees). 2. An incision is made. Usually a thoracotomy is created for SLTs. Bilateral lung transplants may be performed through bilateral thoracotomies, median sternotomy, or a clamshell incision. The conduct of the procedure depends on which lung is to be removed. If the right lung is being removed, the pulmonary vein is isolated extra 7. Inferior and superior pulmonary veins are incised and joined. 9. After anastomoses and restoration of circulation, the lung is fully inflated and observed. Chest tubes are placed and secured. 10. After closure of the chest the surgeon performs a bronchoscopy to remove secretions and to ensure that the anastomosis is intact. Nursing Responsibilities - - - - - Reverse isolation procedures are not necessary unless the neutrophil count is very low (< 500/mm3 ). Use good hand washing and standard precautions at all times and aseptic technique for dressing changes, IV starts and site care, and other invasive procedures (such as urinary catheterisation). Do not allow caregivers or visitors with URTI to have contact with the person; a mask may be provided for short visits if contact is unavoidable. Skin surveillance and care is vital following transplant. Intact skin reduces the risk of infection; however, corticosteroid therapy increases the risk of skin tears and breakdown. The effect of all medications on immunosuppressive therapy and the transplanted organ(s) should be carefully investigated prior to administration. Some antibiotics and other drugs can affect blood levels of immunosuppressants. Particular attention must be paid to respiratory hygiene. Regularly scheduled coughing and deep breathing, and the use of vibration, percussion and postural drainage, are important to prevent accumulation of secretions RIB INSTRUMENTS A. Strippers/rasps B. Shears C. Approximator/ Contractor Self- Retaining Chest Retractor/ Rib Spreader Thoracic Tissue Forceps A. Bronchus Clamps B. Lung Forceps Specialty Lung and Thoracic Retractors - are used to hold lung tissue and displace the bones of the shoulder girdle Basic Laparotomy Set