Angina and Myocardial Infarction Presenting with Pain Confined to the Ear P.M
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J Wave and Cardiac Death in Inferior Wall Myocardial Infarction
ORIGINAL ARTICLES Arrhythmia 2015;16(2):67-77 J Wave and Cardiac Death in Inferior Wall Myocardial Infarction Myung-Jin Cha, MD; Seil Oh, MD, ABSTRACT PhD, FHRS Background and Objectives: The clinical significance of J wave Department of Internal Medicine, Seoul National University presentation in acute myocardial infarction (AMI) patients remains Hospital, Seoul, Korea unclear. We hypothesized that J wave appearance in the inferior leads and/or reversed-J (rJ) wave in leads V1-V3 is associated with poor prognosis in inferior-wall AMI patients. Subject and Methods: We enrolled 302 consecutive patients with inferior-wall AMI who were treated with percutaneous coronary in- tervention (PCI). Patients were categorized into 2 groups based on electrocardiograms before and after PCI: the J group (J waves in in- ferior leads and/or rJ waves in leads V1-V3) and the non-J group (no J wave in any of the 12 leads). We compared patients with high am- plitude (>2 mV) J or rJ waves (big-J group) with the non-J group. The cardiac and all-cause mortality at 6 months and post-PCI ventricular arrhythmic events ≤48 hours after PCI were analyzed. Results: A total of 29 patients (including 19 cardiac death) had died. Although all-cause mortality was significantly higher in the post-PCI J group than in the non-J group (p=0.001, HR=5.38), there was no difference between the groups in cardiac mortality. When compar- ing the post-PCI big-J group with the non-J group, a significant dif- ference was found in all-cause mortality (n=29, p=0.032, HR=5.4) and cardiac mortality (n=19, p=0.011, HR=32.7). -
Temporo-Mandibular Joint (Tmj) Dysfunction
Office: (310) 423-1220 BeverlyHillsENT.com Fax: (310) 423-1230 TEMPORO-MANDIBULAR JOINT (TMJ) DYSFUNCTION You may not have heard of it, but you use it hundreds of times every day. It is the Temporo- Mandibular Joint (TMJ), the joint where the mandible (the lower jaw) joins the temporal bone of the skull, immediately in front of the ear on each side of your head. You move the joint every time you chew or swallow. You can locate this joint by putting your finger on the triangular structure in front of your ear. Then move your finger just slightly forward and press firmly while you open your jaw all the way and shut it. The motion you feel is the TMJ. You can also feel the joint motion in your ear canal. These maneuvers can cause considerable discomfort to a patient who is having TMJ trouble, and physicians use these maneuvers with patients for diagnosis. TMJ Dysfunction can cause the following symptoms: Ear pain Sore jaw muscles Temple/cheek pain Jaw popping/clicking Locking of the jaw Difficulty in opening the mouth fully Frequent head/neck aches The pain may be sharp and searing, occurring each time you swallow, yawn, talk, or chew, or it may be dull and constant. It hurts over the joint, immediately in front of the ear, but pain can also radiate elsewhere. It often causes spasms in the adjacent muscles that are attached to the bones of the skull, face, and jaws. Then, pain can be felt at the side of the head (the temple), the cheek, the lower jaw, and the teeth. -
Type of Breathing- Slow, Rapid, Deep, Shal
Primary survey check pulse; type of pulse- slow, rapid, weak, strong check breathing; type of breathing- slow, rapid, deep, shallow maintain open airway; clear blood vomitus check to see that airway is unobstructed help the athlete find the most comfortable posistion for breathing be prepared to prefrom artificial ventilation and CPR if needed transport to emergency facility Secondary seurvey history what happend? What is the mechanism of injury? When did it happen? Have you ever had any injury to this region before? Have you ever been ill or had a recent episode of mononucleosis? Was there a direct blow? If so by what? Where were you hit? Back, chest, or abdominal area? How large was the area of contact? Did you go to the bathroom prior to practice? Where does it hurt? Point to the area of pain how severe is the pain? What kind of do you have? Sharp, dull, achy, throbbing, radiating what increase the pain? What relieves the pain? Have the symptoms been constant or intermittent? Does the pain increase during respiration or movement? Is the pain located in the chest wall or does it feel deeper or inside the cavity? Do you have any referred pain to your shoulders? Kehr’s sign? Do you have any refferred pain to your flanks? Did you feel anything at the time of injury? Did you hear any sounds at the time of injury? Do you have any crepitation? Possible rib fx or costochondral separation do you feel any tightness, cramping, or rigidity of the abdominal musculature? Do you feel nauseaqted? Do you have any difficulty breathing? Have you urinated -
Unstable Angina with Tachycardia: Clinical and Therapeutic Implications
Unstable angina with tachycardia: Clinical and therapeutic implications We prospectively evaluated 19 patients with prolonged chest pain not evolving to myocardiai infarction and accompanied with reversible ST-T changes and tachycardia (heart rate >lOO beats/min) in order to correlate heart rate reduction with ischemic electrocardiographic (ECG) changes. Fourteen patients (74%) received previous long-term combined treatment with nifedipine and nitrates. Continuous ECG monitoring was carried out until heart rate reduction and at least one of the following occurred: (1) relief of pain or (2) resolution of ischemic ECG changes. The study protocol consisted of carotid massage in three patients (IS%), intravenous propranolol in seven patients (37%), slow intravenous amiodarone infusion in two patients (lo%), and intravenous verapamil in four patients (21%) with atrial fibrillation. In three patients (16%) we observed a spontaneous heart rate reduction on admission. Patients responded with heart rate reduction from a mean of 126 + 10.4 beats/min to 64 k 7.5 beats/min (p < 0.005) and an ST segment shift of 4.3 k 2.13 mm to 0.89 k 0.74 mm (p < 0.005) within a mean interval of 13.2 + 12.7 minutes. Fifteen (79%) had complete response and the other four (21%) had partial relief of pain. A significant direct correlation was observed for heart rate reduction and ST segment deviation (depression or elevation) (f = 0.7527 and 0.8739, respectively). These patients represent a unique subgroup of unstable angina, in which the mechanism responsible for ischemia is excessive increase in heart rate. Conventional vasodilator therapy may be deleterious, and heart rate reduction Is mandatory. -
Evaluation of Abdominal Pain in the Emergency Department Hartmut Gross, M.D., FACEP
Evaluation of Abdominal Pain in the Emergency Department Hartmut Gross, M.D., FACEP Abdominal pain complaints comprise about 5% of all Emergency Department visits. The etiology of the pain may be any of a large number of processes. Many of these causes will be benign and self-limited, while others are medical urgencies or even surgical emergencies. As with any complaint in the ED, the worst diagnosis is always entertained first. Therefore, there is one thought, which the ED practitioner must maintain in the foreground of his mind: “Is there a life threatening process?” Etiology A breakdown of the most common diagnoses of abdominal pain presentations is listed below. Note that nearly half of the time, “unknown origin” is the diagnosis made. This is a perfectly acceptable conclusion, after a proper work-up has ruled out any life threatening illness. Common Diagnoses of Non-traumatic Abdominal Pain in the ED 1 Abdominal pain of unknown origin 41.3% 2 Gastroenteritis 6.9% 3 Pelvic Inflammatory Disease 6.7% 4 Urinary Tract Infection 5.2% 5 Ureteral Stone 4.3% 6 Appendicitis 4.3% 7 Acute Cholecystitis 2.5% 8 Intestinal Obstruction 2.5% 9 Constipation 2.3% 10 Duodenal Ulcer 2.0% 11 Dysmenorrhea 1.8% 12 Simple Pregnancy 1.8% 13 Pyelonephritis 1.7% 14 Gastritis 1.4% 15 Other 12.8% From Brewer, RJ., et al, Am J Surg 131: 219, 1976. Two important factors modify the differential diagnosis in patients who present with abdominal pain: sex and age. Other common diagnoses of abdominal pain in men and women are as follows. -
Investigation of the Incidence of Eustachian Tube Dysfunction in Patients with Sinonasal Disease*
ORIGINAL CONTRIBUTION Investigation of the incidence of Eustachian tube dysfunction in patients with sinonasal disease* 1 2 1 1 C.E. Rennie , M. Gutierrez , Y. Darby , V.J. Lund Rhinology Online, Vol 1: 85 - 89, 2018 http://doi.org/10.4193/RHINOL/18.050 1 Royal National Throat Nose and Ear Hospital, ENT, London, United Kingdom 2 University of North Carolina, Medical student, North Carolina, USA *Received for publication: August 12, 2018 Accepted: August 14, 2018 Abstract Background: Rhinosinusitis is characterised by inflammation affecting the respiratory mucosa of the nose and sinuses. Since the Eustachian tube and the middle ear cavity are also lined by the same mucosa, it is likely that the pathophysiological processes that give rise to rhinosinusitis will also affect these areas. Eustachian tube dysfunction (ETD) is a common condition, but it is often dismissed as a "minor" symptom in rhinology patients. Objective: The aim of this study was to determine the frequency of otologic symptoms in patients attending the rhinology clinic. The seven-item Eustachian Tube Dysfunction Questionnaire (ETDQ-7), a validated disease-specific instrument was used to assess symptoms with respect to ETD7. Study design: 119 patients attending the rhinology outpatient clinic completed ETDQ-7, a SNOT 22 and had their PNIF measured. Results: The results showed a significantly higher rate of ETD (p<0.01 paired t-test) in the rhinology patients (mean score 3.1, SD 1.64) as compared to a control population (mean 1.3, SD 0.3). Conclusion: Eustachian tube dysfunction is more common in rhinology patients then the general population, and within the rhinology population. -
Acoustic Trauma and Hyperbaric Oxygen Treatment
Acoustic Trauma and Hyperbaric Oxygen Treatment Mesut MUTLUOGLU Department of Underwater and Hyperbaric Medicine Gulhane Military Medical Academy Haydarpasa Teaching Hospital 34668, Uskudar, Istanbul TURKEY [email protected] ABSTRACT As stated in the conclusions of the HFM-192 report on hyperbaric oxygen therapy (HBOT) in military medical setting, acoustic trauma is a frequent consequence of military activity in operation. Acoustic trauma refers to an acute hearing loss following a single sudden and very intense noise exposure. It differs from chronic noise induced hearing (NIHL) loss in that it is usually unilateral and causes sudden profound hearing loss. Acoustic trauma is a type of sensorineural hearing loss affecting inner ear structures; particularly the inner and outer hair cells of the organ of Corti within the cochlea. Exposure to noise levels above 85 decibel (dB) may cause hearing loss. While long-term exposure to repetitive or continuous noise above 85 dB may cause chronic NIHL, a single exposure above 130-140 dB, as observed in acoustic trauma, may cause acute NIHL. The loudest sound a human ear may tolerate without pain varies individually, but is usually around 120dB. Military personnel are especially at increased risk for acoustic trauma due to fire arm use in the battle zone. While a machine gun generates around 145dB sound, a rifle generates 157- 163dB, a 105 mm towed howitzer 183dB and an improvised explosive device around 180dB sound. Acoustic trauma displays a gradually down-slopping pattern in the audiogram, particularly after 3000Hz and is therefore described as high-frequency hearing loss. Tinnitus is almost always associated with acoustic trauma. -
Pain Pathways in Orthopaedic Practice J
Postgrad Med J: first published as 10.1136/pgmj.38.437.157 on 1 March 1962. Downloaded from POSTGRAD. MED. J. (I962), 38, I57 PAIN PATHWAYS IN ORTHOPAEDIC PRACTICE J. D. G. TROUP, M.R.C.S., L.R.C.P.* Aberdeen DESPITE Steindler's (1959) admirable lectures on of which time is one of the most significant, have the subject, pain in orthopiedic practice remains a to obtain before pain can be appreciated in tissues difficult problem. To some extent the difficulty is remote from a primary lesion, and when the pain is exaggerated by the adoption of diagnoses based on present, so too are palpably pathological changes. pathological processes which are insusceptible of It is probably true that a peripheral pathway for proof-diagnoses for which it is impossible to pain can be excited centrally or by any stimulus establish an association between symptoms and proximal to it, but the pathway cannot be estab- their alleged origin, let alone a direct causal link. lished in the first place without initial pathological For instance a nipped zygapophyseal synovial changes in the periphery. fringe may well cause acute symptoms, but as there is no means of examining the synovia of The Appreciation of Pain zygapophyseal joints, to make this the diagnosis The appreciation of pain is divided into two is purely speculative. Nevertheless pathological parts; first the sensory component-where it is and guesswork of this sort is regrettably common, and what it feels like, and secondly the affective when some of the latest advances in neuro- component which dictates to what extent the pain by copyright. -
Costochondritis
Department of Rehabilitation Services Physical Therapy Standard of Care: Costochondritis Case Type / Diagnosis: Costochondritis ICD-9: 756.3 (rib-sternum anomaly) 727.2 (unspecified disorder of synovium) Costochondritis (CC) is a benign inflammatory condition of the costochondral or costosternal joints that causes localized pain. 1 The onset is insidious, though patient may note particular activity that exacerbates it. The etiology is not clear, but it is most likely related to repetitive trauma. Symptoms include intermittent pain at costosternal joints and tenderness to palpation. It most frequently occurs unilaterally at ribs 2-5, but can occur at other levels as well. Symptoms can be exacerbated by trunk movement and deep breathing, but will decrease with quiet breathing and rest. 2 CC usually responds to conservative treatment, including non-steroidal anti-inflammatory medication. A review of the relevant anatomy may be helpful in understanding the pathology. The chest wall is made up of the ribs, which connect the vertebrae posteriorly with the sternum anteriorly. Posteriorly, the twelve ribs articulate with the spine through both the costovertebral and costotransverse joints forming the most hypomobile region of the spine. Anteriorly, ribs 1-7 articulate with the costocartilages at the costochondral joints, which are synchondroses without ligamentous support. The costocartilage then attaches directly to the sternum as the costosternal joints, which are synovial joints having a capsule and ligamentous support. Ribs 8-10 attach to the sternum via the cartilage at the rib above, while ribs 11 and 12 are floating ribs, without an anterior articulation. 3 There are many causes of musculo-skeletal chest pain arising from the ribs and their articulations, including rib trauma, slipping rib syndrome, costovertebral arthritis and Tietze’s syndrome. -
The J Wave of the ECG. Concepts Compiled by Dr
The J wave of the ECG. Concepts Compiled by Dr. Andrés R. Pérez Riera The J wave is a positive deflection in the ECG normal (present in 2%–14% of healthy individuals and is more prevalent in young males, particularly if athletic and African descent. Additionally, ERP is a common finding in young teen athletes (the prevalence in the athletic population rises to 20-90%.).1 In this population ERP in both inferior and lateral leads is more common (18.2%) than isolated inferior (9.1%) or lateral (8.2%) ERP. Young age might be a contributing factor in causing a more diffuse repolarization abnormality. 2 or pathological that occurs approximately (There is an overlap of ≈10 msec. 3) after the junction between the end of the QRS complex and the beginning of the ST segment, also known as the J point (junction point), QRS end, J-junction, ST0 [zero millisecond] or ST beginning to occur after the notch/slur or J wave 4. It is described as J deflection as slurring/lambda 5 or notching of the terminal portion of QRS complex. Currently, J waves, is defined as an elevation of the QRS-ST junction ≥1 mm either as QRS slurring or notching in at least 2 contiguous leads. Additionally, when it becomes more accentuated, it may appear as a small, R wave (R′) or ST segment elevation. The term J deflection or J-wave has been used to designate the formation of the wave produced when there is a large, prominent deviation of the J point from the baseline with two shapes: notching/spike-and- slurring/lambda 5 or dome 6 variety. -
Pseudoanginal Chest Pain Associated with Vagal Nerve Stimulation: a Case Report James B
Nichols et al. BMC Neurology (2020) 20:144 https://doi.org/10.1186/s12883-020-01693-5 CASE REPORT Open Access Pseudoanginal chest pain associated with vagal nerve stimulation: a case report James B. Nichols1, Abigail P. McCallum1, Nicolas K. Khattar1, George Z. Wei1, Rakesh Gopinathannair2, Haring J. W. Nauta1 and Joseph S. Neimat1* Abstract Background: Vagal nerve stimulation (VNS) can be an effective therapy for patients with epilepsy refractory to anti- epileptic drugs or intracranial surgery. While generally well tolerated, it has been associated with laryngospasm, hoarseness, coughing, dyspnea, throat and atypical chest pain, cardiac symptoms such as bradycardia and occasionally asystole. We report on a patient receiving vagal nerve stimulation who experienced severe typical anginal chest pain during VNS firing without any evidence of cardiac ischemia or dysfunction. Thus, the pain appeared to be neuropathic from the stimulation itself rather than nociceptive secondary to an effect on heart function. Case presentation: A 29-year-old man, with a history of intractable frontal lobe epilepsy refractory to seven anti- epileptic medications and subsequent intracranial surgery, underwent VNS implantation without complications. On beginning stimulation, he began to have intermittent chest pain that corresponded temporally to his intermittent VNS firing. The description of his pain was pathognomonic of ischemic cardiac chest pain. On initial evaluation, he displayed Levine’s sign and reported crushing substernal chest pain radiating to the left arm, as well as shortness of breath walking upstairs that improved with rest. He underwent an extensive cardiac workup, including 12-lead ECG, cardiac stress test, echocardiogram, 12-day ambulatory cardiac monitoring, and continuous ECG monitoring each with and without stimulation of his device. -
MASTOIDECTOMY (With Or Without Tympanoplasty)
MASTOIDECTOMY (with or without tympanoplasty) Informed Surgical Consent A mastoidectomy is a surgical procedure that removes diseased mastoid air cells. These cells sit behind your ear in a hollow space in your skull. Typically, a mastoidectomy (with or without tympanoplasty) is recommended for patients that have a cholesteatoma and/or a chronically infected ear that has failed medical management (chronic otitis media). Your doctor at Suburban Ear, Nose, and Throat is uniquely trained to perform mastoidectomy surgery. A cholesteatoma is a benign skin cyst that grows inside the ear. Most cholesteatomas occupy the middle ear space behind the tympanic membrane (eardrum). Occasionally, cholesteatomas arise from the external ear canal, and then are referred to as canal cholesteatomas. Canal cholesteatomas can usually be managed conservatively with routine ear cleaning in the office, but rarely they will require surgical intervention. Middle ear cholesteatomas, on the other hand, almost always require surgery. They typically occur in children and adults who have chronic eustachian tube dysfunction (ETD), a problem with ventilation or "popping" the ears. When ETD is present for many years, it can lead to development of a cholesteatoma. Although most cholesteatomas are acquired, some patients are actually born with the cholesteatoma; this is called a congenital cholesteatoma. Cholesteatomas grow very slowly, but they can cause significant damage to any structure in the ear that they come in contact with. Commonly, the cholesteatoma erodes into the tiny bones (ossicles) in the middle ear that allow for hearing. Untreated, cholesteatomas can lead to hearing loss, infection, chronic ear discharge, ear pain, dizziness, facial paralysis, or in rare cases, infection that spreads to the brain.