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A brain surgery called a craniectomy is performed to remove a part of your skull in order to relieve pressure in an area when your brain swells from a traumatic brain injury. It is also performed to treat medical conditions that cause your brain to swell or bleed that can be caused by an aneurysm, brain tumor or other cancer.
This 3d animation shows how the surgical procedure decreases intracranial pressure (ICP), intracranial hypertension (ICHT), or heavy bleeding (also called hemorrhaging) inside your skull. If left untreated, pressure or bleeding can compress your brain and push it down onto the brain stem. This can be fatal or cause permanent brain damage.
Brain surgery is a very serious procedure under any circumstances, but a craniectomy is done when there is an immediate risk to the brain and neurological function due to severe brain injury or stroke.
For more information about custom 3D animation depicting surgery, please visit https://www.amerra.com/.
Watch additional medical animations:
Accessing an implantable port training - 3D animation: https://youtu.be/xSTpxjyv4O4
Open Suctioning with a Tracheostomy Tube - 3D animation: https://youtu.be/wamB7jpWCiQ
Ventriculostomy Brain Surgery - 3d animation: https://youtu.be/pUy0YDzVNzs
Suctioning the endotracheal tube - medical animation: https://youtu.be/pN6-EYoeh3g
Functional endoscopic sinus surgery (FESS) - 3D animation: https://youtu.be/qKTRyowwaLA
How to insert a nasogastric tube for NG intubation - 3d animation: https://youtu.be/Abf3Gd6AaZQ
Oral airway insertion - oropharyngeal airway technique - 3D animation: https://youtu.be/caxUdNwjt34
Nasotracheal suctioning (NTS) - 3D animation: https://youtu.be/979jWMsF62c
Learn about hemorrhoids with #3d #animation: https://youtu.be/R6NqlMpsiiY
LASIK eye surgery - 3D animation: https://youtu.be/Bb8bnjnEM00
CPR cardiopulmonary resuscitation - 3D animation: https://youtu.be/G87knTZnhks
What are warts (HPV)? - 3D animation: https://youtu.be/guJ1J7rRs1w
How Macular Degeneration Affects Your Vision - 3D animation: https://youtu.be/ozZQIZ_52YY
NeoGraft hair transplant procedure – animation: https://youtu.be/C-eTdH2UPXI
At one time, women who had delivered by cesarean section in the past would usually have another cesarean section for any future pregnancies. The rationale was that if allowed to labor, many of these women with a scar in their uterus would rupture the uterus along the weakness of the old scar. Over time, a number of observations have become apparent: Most women with a previous cesarean section can labor and deliver vaginally without rupturing their uterus. Some women who try this will, in fact, rupture their uterus. When the uterus ruptures, the rupture may have consequences ranging from near trivial to disastrous. It can be very difficult to diagnose a uterine rupture prior to observing fetal effects (eg, bradycardia). Once fetal effects are demonstrated, even a very fast reaction and nearly immediate delivery may not lead to a good outcome. The more cesarean sections the patient has, the greater the risk of subsequent rupture during labor. The greatest risk occurs following a “classical” cesarean section (in which the uterine incision extends up into the fundus.) The least risk of rupture is among women who had a low cervical transverse incision. Low vertical incisions probably increase the risk of rupture some, but usually not as much as a classical incision. Many studies have found the use of oxytocin to be associated with an increased risk of rupture, either because of the oxytocin itself, or perhaps because of the clinical circumstances under which it would be contemplated. Pain medication, including epidural anesthetic, has not resulted greater adverse outcome because of the theoretical risk of decreasing the attendant’s ability to detect rupture early. The greatest risk of rupture occurs during labor, but some of the ruptures occur prior to the onset of labor. This is particularly true of the classical incisions. Overall successful vaginal delivery rates following previous cesarean section are in the neighborhood of 70 This means that about 30of women undergoing a vaginal trial of labor will end up requiring a cesarean section. Those who undergo cesarean section (failed VBAC) after a lengthy labor will frequently have a longer recovery and greater risk of infection than had they undergone a scheduled cesarean section without labor. Women whose first cesarean was for failure to progress in labor are only somewhat less likely to be succesful in their quest for a VBAC than those with presumably non-recurring reasons for cesarean section. For these reasons, women with a prior cesarean section are counseled about their options for delivery with a subsequent pregnancy: Repeat Cesarean Section, or Vaginal Trial of Labor. They are usually advised of the approximate 70successful VBAC rate (modified for individual risk factors). They are counseled about the risk of uterine rupture (approximately 1in most series), and that while the majority of those ruptures do not lead to bad outcome, some of them do, including fetal brain damage and death, and maternal loss of future childbearing. They are advised of the usual surgical risks of infection, bleeding, anesthesia complications and surgical injury to adjacent structures. After counseling, many obstetricians leave the decision for a repeat cesarean or VBAC to the patient. Both approaches have risks and benefits, but they are different risks and different benefits. Fortunately, most repeat cesarean sections and most vaginal trials of labor go well, without any serious complications. For those choosing a trial of labor, close monitoring of mother and baby, with early detection of labor abnormalities and preparation for
Function and Anatomy: The hip is a ball and socket type joint, formed by the articulation of the head of the femur with the pelvis. Normal range of motion includes: abduction 45 degrees, adduction 20-30 degrees, flexion 135 degrees, extension 30 degrees, internal and external rotation. Hip pathology can cause symptoms anywhere around the joint, though frequently pain is anterior and radiates to the groin region. Additionally, pathology outside of the hip can be referred to this region. History and exam obviously help in making these distinctions.
This is a diabetic foot ulcer. The patient reportedly went on vacation and noticed this ulcer upon their return. Debridement (removal of damaged tissue) to the level of healthy bleeding tissue is medically necessary as damaged tissue acts an impediment to wound healing. Due to their diabetic neuropathy, they did not feel any pain or indication that a wound was forming. This ulcer appeared to have penetrated to the level of subcutaneous tissue or even fascia, but turned out to be much deeper than that. These are serious wounds and are the beginnings of what lead to foot and leg amputations if they are not treated promptly by your healthcare provider, AKA Podiatrist.
Amniotomy is the official term for artificially breaking the bag of waters during labor. It is believed that breaking the bag of waters will help to speed up an otherwise slow labor. Amniotomy is part of the Active Management of Labor practiced in some hospitals. Amniotomy is performed by a midwife or doctor. A long, thin instrument with a hook on the end is inserted into the vagina and through the cervix so it can catch and rip the bag of waters. To perform an amniotomy, the cervix must be dilated enough to allow the instrument through the cervix, generally at least a two. Why choose Amniotomy? Unlike other medical methods of starting labor, amniotomy does not add synthetic hormones to your labor. Instead it seems to stimulate your body’s own labor process. Amniotomy allows the use of an internal electronic fetal monitor. How effective is Amniotomy? Amniotomy alone is unpredictable, it may take hours for labor to start with amniotomy. Because amniotomy increases the risk for infection, most caregivers use amniotomy in combination with synthetic oxytocin. Birth does happen faster when amniotomy is combined with synthetic oxytocin than when amniotomy is used alone. Risks of Amniotomy Risks for Mother Increases the risk for infection. This risk is increased with length of time the waters are broken and with vaginal exams. Because of the infection risk, a time limit is given by which the mother must give birth. As the time limit approaches attempts to progress labor will become more aggressive. The fore waters equalize pressure on the cervix so it will open uniformly. When they are broken, the mother increases her chances of having uneven dilation. Risks for Baby Increases the risk of umbilical cord compression. The fore waters equalize pressure on the baby’s head as it presses against the cervix. When they are broken, the pressure on the baby’s head may be uneven causing swelling in some parts.
This 3D animation of brain surgery, shows how a ventriculostomy is performed, which is a neurosurgical procedure of creating a hole within a cerebral ventricle for drainage. It is most commonly performed on those with hydrocephalus, an abnormal buildup of fluid in the ventricles (cavities) deep within the brain. It's done by surgically penetrating the skull, dura mater, and brain such that the ventricular system ventricle of the brain is accessed.
When catheter drainage is temporary, it is commonly referred to as an external ventricular drain (EVD). When catheter drainage is permanent, it is usually referred to as a shunt.
There are many catheter-based ventricular shunts that are named for where they terminate, for example, a ventriculi-peritoneal shunt terminates in the peritoneal cavity, a ventriculoarterial shunt terminates within the atrium of the heart, etc. The most common entry point on the skull is called Kocher's point. An EVD ventriculostomy is done primarily to monitor the intracranial pressure as well as to drain cerebrospinal fluid (CSF), primarily, or blood to relieve pressure from the central nervous system (CNS).
For more information about custom medical animation, please visit https://www.amerra.com/.
Watch additional medical animations:
Craniectomy brain surgery - 3D animation: https://youtu.be/1RkseDeYS9g
Accessing an implantable port training - 3D animation: https://youtu.be/xSTpxjyv4O4
Open Suctioning with a Tracheostomy Tube - 3D animation: https://youtu.be/wamB7jpWCiQ
Suctioning the endotracheal tube - medical animation: https://youtu.be/pN6-EYoeh3g
Functional endoscopic sinus surgery (FESS) - 3D animation: https://youtu.be/qKTRyowwaLA
How to insert a nasogastric tube for NG intubation - 3d animation: https://youtu.be/Abf3Gd6AaZQ
Oral airway insertion - oropharyngeal airway technique - 3D animation: https://youtu.be/caxUdNwjt34
Nasotracheal suctioning (NTS) - 3D animation: https://youtu.be/979jWMsF62c
Learn about hemorrhoids with #3d #animation: https://youtu.be/R6NqlMpsiiY
LASIK eye surgery - 3D animation: https://youtu.be/Bb8bnjnEM00
CPR cardiopulmonary resuscitation - 3D animation: https://youtu.be/G87knTZnhks
What are warts (HPV)? - 3D animation: https://youtu.be/guJ1J7rRs1w
How Macular Degeneration Affects Your Vision - 3D animation: https://youtu.be/ozZQIZ_52YY
NeoGraft hair transplant procedure – animation: https://youtu.be/C-eTdH2UPXI
The Epley Maneuver for Vertigo can be very effective at relieving vertigo symptoms, but it’s a procedure that should be performed by a physical therapist or other health care professional. This video is for demonstration purposes only. See Doctor Jo’s blog post about the Epley
A hematoma is a collection of blood outside of a blood vessel. There are several types of hematomas and they are often described based on their location. Examples of hematomas include subdural, spinal, under the finger or toenail bed (subungual), ear, and liver (hepatic). Some causes of hematomas are as pelvic bone fractures, fingernail injuries (subungual), bumps, passing blood clots, blood clot in the leg (DVT), blood cancers, and excessive alcohol use. Symptoms of hematomas depend upon their location and whether adjacent structures are affected by the inflammation and swelling associated with the bleeding and may include
A unique look into laboratory techniques for egg freezing, also known as oocyte cyropreservation. Take an exclusive look inside one of the most advanced, state-of-the-art in vitro fertilization (IVF) laboratories to see how RMA of New York performs egg freezing procedures using strict identification standards. Medical and laboratory video footage documents egg retrieval, egg identification from follicular fluid, preparation for preservation, and the cyropreservation and storage process for egg freezing. RMA of New York is proud to partner with Extend Fertility ™ to offer egg freezing services. To learn more, please visit Reproductive Medicine Associates of New York www.rmany.com/fertility-hope Or Extend Fertility http://www.extendfertility.com 635 Madison Avenue, 10th floor New York, New York 10022 Telephone: (212) 756-5777 Facsimile: (212) 756-5770 15 North Broadway, Garden Level - Suite G White Plains, New York 10601 Telephone: (914) 997-6200 Facsimile: (914) 997-8111 Reproductive Medicine Associates of New York, Long Island 400 Garden City Plaza, Suite 107 Garden City, NY 11530 Telephone: (516) 746-3633 Facsimile: (516) 746-3622 Reproductive Medicine Associates International Mexico, S.C. Prolongacion Paseo de la Reforma 1232, Oficina 1213 Colonia Lomas de Bezares Delegacion Miguel Hidalgo Mexico, Distrito Federal 11910 Telephone: 011-52-55-2167-2515 Fax: 011-52-55-2167-6434
The examination room should be quiet, warm and well lit. After you have finished interviewing the patient, provide them with a gown (a.k.a. "Johnny") and leave the room (or draw a separating curtain) while they change. Instruct them to remove all of their clothing (except for briefs) and put on the gown so that the opening is in the rear. Occasionally, patient's will end up using them as ponchos, capes or in other creative ways. While this may make for a more attractive ensemble it will also, unfortunately, interfere with your ability to perform an examination! Prior to measuring vital signs, the patient should have had the opportunity to sit for approximately five minutes so that the values are not affected by the exertion required to walk to the exam room. All measurements are made while the patient is seated. Observation: Before diving in, take a minute or so to look at the patient in their entirety, making your observations, if possible, from an out-of-the way perch. Does the patient seem anxious, in pain, upset? What about their dress and hygiene? Remember, the exam begins as soon as you lay eyes on the patient. Temperature: This is generally obtained using an oral thermometer that provides a digital reading when the sensor is placed under the patient's tongue. As most exam rooms do not have thermometers, it is not necessary to repeat this measurement unless, of course, the recorded value seems discordant with the patient's clinical condition (e.g. they feel hot but reportedly have no fever or vice versa). Depending on the bias of a particular institution, temperature is measured in either Celcius or Farenheit, with a fever defined as greater than 38-38.5 C or 101-101.5 F. Rectal temperatures, which most closely reflect internal or core values, are approximately 1 degree F higher than those obtained orally. Respiratory Rate: Respirations are recorded as breaths per minute. They should be counted for at least 30 seconds as the total number of breaths in a 15 second period is rather small and any miscounting can result in rather large errors when multiplied by 4. Try to do this as surreptitiously as possible so that the patient does not consciously alter their rate of breathing. This can be done by observing the rise and fall of the patient's hospital gown while you appear to be taking their pulse. Normal is between 12 and 20. In general, this measurement offers no relevant information for the routine examination. However, particularly in the setting of cardio-pulmonary illness, it can be a very reliable marker of disease activity. Pulse: This can be measured at any place where there is a large artery (e.g. carotid, femoral, or simply by listening over the heart), though for the sake of convenience it is generally done by palpating the radial impulse. You may find it helpful to feel both radial arteries simultaneously, doubling the sensory input and helping to insure the accuracy of your measurements. Place the tips of your index and middle fingers just proximal to the patients wrist on the thumb side, orienting them so that they are both over the length of the vessel.
Urinary incontinence isn't a disease, it's a symptom. It can be caused by everyday habits, underlying medical conditions or physical problems. A thorough evaluation by your doctor can help determine what's behind your incontinence. Temporary urinary incontinence Certain drinks, foods and medications can act as diuretics — stimulating your bladder and increasing your volume of urine. They include: Alcohol Caffeine Decaffeinated tea and coffee Carbonated drinks Artificial sweeteners Corn syrup Foods that are high in spice, sugar or acid, especially citrus fruits Heart and blood pressure medications, sedatives, and muscle relaxants Large doses of vitamins B or C Urinary incontinence also may be caused by an easily treatable medical condition, such as: Urinary tract infection. Infections can irritate your bladder, causing you to have strong urges to urinate, and sometimes incontinence. Other signs and symptoms of urinary tract infection include a burning sensation when you urinate and foul-smelling urine. Constipation. The rectum is located near the bladder and shares many of the same nerves. Hard, compacted stool in your rectum causes these nerves to be overactive and increase urinary frequency. Persistent urinary incontinence Urinary incontinence can also be a persistent condition caused by underlying physical problems or changes, including: Pregnancy. Hormonal changes and the increased weight of the uterus can lead to stress incontinence. Childbirth. Vaginal delivery can weaken muscles needed for bladder control and also damage bladder nerves and supportive tissue, leading to a dropped (prolapsed) pelvic floor. With prolapse, the bladder, uterus, rectum or small intestine can get pushed down from the usual position and protrude into the vagina. Such protrusions can be associated with incontinence. Changes with age. Aging of the bladder muscle can decrease the bladder's capacity to store urine. Menopause. After menopause women produce less estrogen, a hormone that helps keep the lining of the bladder and urethra healthy. Deterioration of these tissues can aggravate incontinence. Hysterectomy. In women, the bladder and uterus are supported by many of the same muscles and ligaments. Any surgery that involves a woman's reproductive system, including removal of the uterus, may damage the supporting pelvic floor muscles, which can lead to incontinence. Enlarged prostate. Especially in older men, incontinence often stems from enlargement of the prostate gland, a condition known as benign prostatic hyperplasia. Prostate cancer. In men, stress incontinence or urge incontinence can be associated with untreated prostate cancer. But more often, incontinence is a side effect of treatments for prostate cancer. Obstruction. A tumor anywhere along your urinary tract can block the normal flow of urine, leading to overflow incontinence. Urinary stones — hard, stone-like masses that form in the bladder — sometimes cause urine leakage. Neurological disorders. Multiple sclerosis, Parkinson's disease, stroke, a brain tumor or a spinal injury can interfere with nerve signals involved in bladder control, causing urinary incontinence.