Rapidly Progressive Tetraplegia and Cognitive Deterioration During Rehabilitation: a Case of Neurodegenerative Disease
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What to Expect After Having a Subarachnoid Hemorrhage (SAH) Information for Patients and Families Table of Contents
What to expect after having a subarachnoid hemorrhage (SAH) Information for patients and families Table of contents What is a subarachnoid hemorrhage (SAH)? .......................................... 3 What are the signs that I may have had an SAH? .................................. 4 How did I get this aneurysm? ..................................................................... 4 Why do aneurysms need to be treated?.................................................... 4 What is an angiogram? .................................................................................. 5 How are aneurysms repaired? ..................................................................... 6 What are common complications after having an SAH? ..................... 8 What is vasospasm? ...................................................................................... 8 What is hydrocephalus? ............................................................................... 10 What is hyponatremia? ................................................................................ 12 What happens as I begin to get better? .................................................... 13 What can I expect after I leave the hospital? .......................................... 13 How will the SAH change my health? ........................................................ 14 Will the SAH cause any long-term effects? ............................................. 14 How will my emotions be affected? .......................................................... 15 When should -
What%Is%Epilepsy?%
What%is%Epilepsy?% Epilepsy(is(a(brain(disorder(in(which(a(person(has(repeated(seizures((convulsions)(over(time.(Seizures(are( episodes(of(disturbed(brain(activity(that(cause(changes(in(attention(or(behavior.( Causes( Epilepsy(occurs(when(permanent(changes(in(brain(tissue(cause(the(brain(to(be(too(excitable(or(jumpy.( The(brain(sends(out(abnormal(signals.(This(results(in(repeated,(unpredictable(seizures.((A(single(seizure( that(does(not(happen(again(is(not(epilepsy.)( Epilepsy(may(be(due(to(a(medical(condition(or(injury(that(affects(the(brain,(or(the(cause(may(be( unknown((idiopathic).( Common(causes(of(epilepsy(include:( •Stroke(or(transient(ischemic(attack((TIA)( •Dementia,(such(as(Alzheimer's(disease( •Traumatic(brain(injury( •Infections,(including(brain(abscess,(meningitis,(encephalitis,(and(AIDS( •Brain(problems(that(are(present(at(birth((congenital(brain(defect)( •Brain(injury(that(occurs(during(or(near(birth( •Metabolism(disorders(present(at(birth((such(as(phenylketonuria)( •Brain(tumor( •Abnormal(blood(vessels(in(the(brain( •Other(illness(that(damage(or(destroy(brain(tissue( •Use(of(certain(medications,(including(antidepressants,(tramadol,(cocaine,(and(amphetamines( Epilepsy(seizures(usually(begin(between(ages(5(and(20,(but(they(can(happen(at(any(age.(There(may(be(a( family(history(of(seizures(or(epilepsy.( Symptoms( Symptoms(vary(from(person(to(person.(Some(people(may(have(simple(staring(spells,(while(others(have( violent(shaking(and(loss(of(alertness.(The(type(of(seizure(depends(on(the(part(of(the(brain(affected(and( cause(of(epilepsy.( -
Myelopathy—Paresis and Paralysis in Cats
Myelopathy—Paresis and Paralysis in Cats (Disorder of the Spinal Cord Leading to Weakness and Paralysis in Cats) Basics OVERVIEW • “Myelopathy”—any disorder or disease affecting the spinal cord; a myelopathy can cause weakness or partial paralysis (known as “paresis”) or complete loss of voluntary movements (known as “paralysis”) • Paresis or paralysis may affect all four limbs (known as “tetraparesis” or “tetraplegia,” respectively), may affect only the rear legs (known as “paraparesis” or “paraplegia,” respectively), the front and rear leg on the same side (known as “hemiparesis” or “hemiplegia,” respectively) or only one limb (known as “monoparesis” or “monoplegia,” respectively) • Paresis and paralysis also can be caused by disorders of the nerves and/or muscles to the legs (known as “peripheral neuromuscular disorders”) • The spine is composed of multiple bones with disks (intervertebral disks) located in between adjacent bones (vertebrae); the disks act as shock absorbers and allow movement of the spine; the vertebrae are named according to their location—cervical vertebrae are located in the neck and are numbered as cervical vertebrae one through seven or C1–C7; thoracic vertebrae are located from the area of the shoulders to the end of the ribs and are numbered as thoracic vertebrae one through thirteen or T1–T13; lumbar vertebrae start at the end of the ribs and continue to the pelvis and are numbered as lumbar vertebrae one through seven or L1–L7; the remaining vertebrae are the sacral and coccygeal (tail) vertebrae • The brain -
Upper Extremity Function in Persons with Tetraplegia: Relationships
Neurorehabilitation and Research Articles Neural Repair Volume 23 Number 5 June 2009 413-421 © 2009 The Author(s) 10.1177/1545968308331143 Upper Extremity Function in Persons with http://nnr.sagepub.com Tetraplegia: Relationships Between Strength, Capacity, and the Spinal Cord Independence Measure Claudia Rudhe, OT, MSc, and Hubertus J. A. van Hedel, PT, PhD Objective. To quantify the relationship between the Spinal Cord Independence Measure III (SCIM III), arm and hand muscle strength, and hand function tests in persons with tetraplegia. Methods. A total of 29 individuals with tetraplegia (motor level between cervical 4 and thoracic 1; sensory-motor complete and incomplete) participated. The total score, category scores, and separate items of the SCIM III were compared to the upper extremity motor score (UEMS), an extended manual muscle test (MMT) for 11 upper extremity muscles, and 6 functional capacity tests of the hand. Spearman’s correlation coefficients (rs) and regression analyses were performed. Results. The SCIM III sum score correlated well with the sum scores of the 3 tests (rs ≥ .76). The SCIM III self-care category correlated better with the tests (rs ≥ .80) compared to the other categories (rs ≤ .72). The SCIM III self-care item “grooming” highly correlated with muscle strength and hand capacity items (rs ≥ .80). A combination of hand muscle tests and the key grasping task explained over 90% of the variability in the self-care category scores. Conclusions. The SCIM III self-care category reflects upper extremity performance as it contains especially useful and valid items that relate to upper extremity function and capacity tests. -
Brain Injury and Opioid Overdose
Brain Injury and Opioid Overdose: Acquired Brain Injury is damage to the brain 2.8 million brain injury related occurring after birth and is not related to congenital or degenerative disease. This includes anoxia and hospital stays/deaths in 2013 hypoxia, impairment (lack of oxygen), a condition consistent with drug overdose. 70-80% of hospitalized patients are discharged with an opioid Rx Opioid Use Disorder, as defined in DSM 5, is a problematic pattern of opioid use leading to clinically significant impairment, manifested by meaningful risk 63,000+ drug overdose-related factors occurring within a 12-month period. deaths in 2016 Overdose is injury to the body (poisoning) that happens when a drug is taken in excessive amounts “As the number of drug overdoses continues to rise, and can be fatal. Opioid overdose induces respiratory doctors are struggling to cope with the increasing number depression that can lead to anoxic or hypoxic brain of patients facing irreversible brain damage and other long injury. term health issues.” Substance Use and Misuse is: The frontal lobe is • Often a contributing factor to brain injury. History of highly susceptible abuse/misuse is common among individuals who to brain oxygen have sustained a brain injury. loss, and damage • Likely to increase for individuals who have misused leads to potential substances prior to and post-injury. loss of executive Acute or chronic pain is a common result after brain function. injury due to: • Headaches, back or neck pain and other musculo- Sources: Stojanovic et al 2016; Melton, C. Nov. 15,2017; Devi E. skeletal conditions commonly reported by veterans Nampiaparampil, M.D., 2008; Seal K.H., Bertenthal D., Barnes D.E., et al 2017; with a history of brain injury. -
Cerebellar Disease in the Dog and Cat
CEREBELLAR DISEASE IN THE DOG AND CAT: A LITERATURE REVIEW AND CLINICAL CASE STUDY (1996-1998) b y Diane Dali-An Lu BVetMed A thesis submitted for the degree of Master of Veterinary Medicine (M.V.M.) In the Faculty of Veterinary Medicine University of Glasgow Department of Veterinary Clinical Studies Division of Small Animal Clinical Studies University of Glasgow Veterinary School A p ril 1 9 9 9 © Diane Dali-An Lu 1999 ProQuest Number: 13815577 All rights reserved INFORMATION TO ALL USERS The quality of this reproduction is dependent upon the quality of the copy submitted. In the unlikely event that the author did not send a com plete manuscript and there are missing pages, these will be noted. Also, if material had to be removed, a note will indicate the deletion. uest ProQuest 13815577 Published by ProQuest LLC(2018). Copyright of the Dissertation is held by the Author. All rights reserved. This work is protected against unauthorized copying under Title 17, United States C ode Microform Edition © ProQuest LLC. ProQuest LLC. 789 East Eisenhower Parkway P.O. Box 1346 Ann Arbor, Ml 48106- 1346 GLASGOW UNIVERSITY lib ra ry ll5X C C ^ Summary SUMMARY________________________________ The aim of this thesis is to detail the history, clinical findings, ancillary investigations and, in some cases, pathological findings in 25 cases of cerebellar disease in dogs and cats which were presented to Glasgow University Veterinary School and Hospital during the period October 1996 to June 1998. Clinical findings were usually characteristic, although the signs could range from mild tremor and ataxia to severe generalised ataxia causing frequent falling over and difficulty in locomotion. -
Traumatic Brain Injury and Domestic Violence
TRAUMATIC BRAIN INJURY AND DOMESTIC VIOLENCE Women who are abused often suffer injury to their head, neck, and face. The high potential for women who are abused to have mild to severe Traumatic Brain Injury (TBI) is a growing concern, since the effects can cause irreversible psychological and physical harm. Women who are abused are more likely to have repeated injuries to the head. As injuries accumulate, likelihood of recovery dramatically decreases. In addition, sustaining another head trauma prior to the complete healing of the initial injury may be fatal. Severe, obvious trauma does not have to occur for brain injury to exist. A woman can sustain a blow to the head without any loss of consciousness or apparent reason to seek medical assistance, yet display symptoms of TBI. (NOTE: While loss of consciousness can be significant in helping to determine the extent of the injury, people with minor TBI often do not lose consciousness, yet still have difficulties as a result of their injury). Many women suffer from a TBI unknowingly and misdiagnosis is common since symptoms may not be immediately apparent and may mirror those of mental health diagnoses. In addition, subtle injuries that are not identifiable through MRIs or CT scans may still lead to cognitive symptoms. What is Traumatic Brain Injury? Traumatic brain injury (TBI) is defined as an injury to the brain that is caused by external physical force and is not present at birth or degenerative. TBI can be caused by: • A blow to the head, o e.g., being hit on the head forcefully with object or fist, having one’s head smashed against object/wall, falling and hitting head, gunshot to head. -
Traumatic Brain Injury (TBI)
Traumatic Brain Injury (TBI) Carol A. Waldmann, MD raumatic brain injury (TBI), caused either by blunt force or acceleration/ deceleration forces, is common in the general population. Homeless persons Tare at particularly high risk of head trauma and adverse outcomes to TBI. Even mild traumatic brain injury can lead to persistent symptoms including cognitive, physical, and behavioral problems. It is important to understand brain injury in the homeless population so that appropriate referrals to specialists and supportive services can be made. Understanding the symptoms and syndromes caused by brain injury sheds light on some of the difficult behavior observed in some homeless persons. This understanding can help clinicians facilitate and guide the care of these individuals. Prevalence and Distribution recover fully, but up to 15% of patients diagnosed TBI and Mood Every year in the USA, approximately 1.5 with MTBI by a physician experience persistent Swings. million people sustain traumatic brain injury disabling problems. Up to 75% of brain injuries This man suffered (TBI), 230,000 people are hospitalized due to TBI are classified as MTBI. These injuries cost the US a gunshot wound and survive, over 50,000 people die from TBI, and almost $17 billion per year. The groups most at risk to the head and many subsequent more than 1 million people are treated in emergency for TBI are those aged 15-24 years and those aged traumatic brain rooms for TBI. In persons under the age of 45 years, 65 years and older. Men are twice as likely to sustain injuries while TBI is the leading cause of death. -
PREVENTING SECONDARY MEDICAL COMPLICATIONS: a Guide for Personal Assistants to People with Spinal Cord Injury
PREVENTING SECONDARY MEDICAL COMPLICATIONS: A Guide for Personal Assistants to People with Spinal Cord Injury Medical Rehabilitation Research and Training Center in Secondary Complications in Spinal Cord Injury SPAIN REHABILITATION CENTER University of Alabama at Birmingham Preventing Secondary Medical Complications: A Guide For Personal Assistants to People With Spinal Cord Injury Developed by: Medical Rehabilitation Research and Training Center in Secondary Complications in Spinal Cord Injury Training Office Department of Physical Medicine and Rehabilitation Spain Rehabilitation Center University of Alabama at Birmingham Acknowledgment Our thanks to the following individuals who helped us in the development of this booklet: Lorraine Arrington Judy Matthews Brenda Bass Margaret A. Nosek, PhD Betty Bass Scott and Donna Sartain Cathy Crawford, RD Drenda Scroggin Charles Cowan Anna Smith Allan Drake Brenda Smith David Felton Susan Smith, RN,BSN Peg Hale, RN,BSN Nita Straiton Bobbie Kent Donna Thornton Phillip Klebine Frank Wilkinson C.J. and Cindy Luster Larrie Waters c 1992, Revised 1996, The Board of Trustees of the University of Alabama This publication is supported in part by a grant (#H133B30025) from the National Institute on Disability and Rehabilitation Research, Department of Education, Washington, D.C. 20202. Opinions expressed in this document are not necessarily those of the granting agency. The University of Alabama at Birmingham administers its educational programs and activities, including admissions, without regard to race, color, religion, sex, national origin, handicap or Vietnam era or disabled veteran status. (Title IX of the Education Amendments of 1972 specifically prohibits discrimination on the basis of sex.) Direct inquires to Academic Affirmative Action Officer, The University of Alabama at Birmingham, UAB Station, Birmingham, Alabama, 35294. -
When Normal Multi-Joint Movement Synergies Become Pathologic Marco Santello Arizona State University at the Tempe Campus
Washington University School of Medicine Digital Commons@Becker Open Access Publications 2015 Are movement disorders and sensorimotor injuries pathologic synergies? When normal multi-joint movement synergies become pathologic Marco Santello Arizona State University at the Tempe Campus Catherine E. Lang Washington University School of Medicine in St. Louis Follow this and additional works at: https://digitalcommons.wustl.edu/open_access_pubs Recommended Citation Santello, Marco and Lang, Catherine E., ,"Are movement disorders and sensorimotor injuries pathologic synergies? When normal multi-joint movement synergies become pathologic." Frontiers in Human Neuroscience.8,. 1050. (2015). https://digitalcommons.wustl.edu/open_access_pubs/3648 This Open Access Publication is brought to you for free and open access by Digital Commons@Becker. It has been accepted for inclusion in Open Access Publications by an authorized administrator of Digital Commons@Becker. For more information, please contact [email protected]. REVIEW ARTICLE published: 06 January 2015 HUMAN NEUROSCIENCE doi: 10.3389/fnhum.2014.01050 Are movement disorders and sensorimotor injuries pathologic synergies? When normal multi-joint movement synergies become pathologic Marco Santello1* and Catherine E. Lang 2 1 Neural Control of Movement Laboratory, School of Biological and Health Systems Engineering, Arizona State University, Tempe, AZ, USA 2 Program in Physical Therapy, Program in Occupational Therapy, Department of Neurology, Washington University School of Medicine in St. Louis, St. Louis, MO, USA Edited by: The intact nervous system has an exquisite ability to modulate the activity of multiple mus- Ana Bengoetxea, Universidad del País cles acting at one or more joints to produce an enormous range of actions. Seemingly Vasco-Euskal Herriko Unibertsitatea, Spain simple tasks, such as reaching for an object or walking, in fact rely on very complex spatial Reviewed by: and temporal patterns of muscle activations. -
Mechanisms of Injury in Dyskinetic Cerebral Palsy
Mechanisms of Injury in Dyskinetic Cerebral Palsy Alec Hoon, MD Associate Professor of Pediatrics Johns Hopkins University School of Medicine Director, Phelps Center for Cerebral Palsy Kennedy Krieger Institute Neurodevelopmental Evaluation Structure‐Function Genetic, Epigenetic, Clinical Phenotype Abnormalities Environmental Risk Factors CP Diagnosis Etiologic Diagnosis Child‐Family Rehabilitative Characteristics Management Medical Surgical Measurement CAM Cell‐Based therapy Techniques Outcome Key Concepts in Cerebral Palsy • Motor control‐ tone, posture, movement • 2‐3/1000 children • Risk factors include infection, inflammation, low birth weight, prematurity, genetic • Secondary to brain dysgenesis or injury • “Non‐progressive”‐ manifestations can change • Unilateral and bilateral phenotypes • A range of associated disorders • Etiology links to phenotype links to treatment 1 Cerebral Palsy‐ Clinical Phenotypes CEREBRAL PALSY Spastic Dyskinetic Ataxic Hypotonia Bilateral Unilateral Hypertonic Hyperkinetic Spastic Diplegia Hemiplegia Dystonic Rigid Dystonic Tetraplegia Quadriplegia Athetosis Chorea Hemiballismus Cascade of events in brain injury 1. Prenatal antecedents may be suspected‐(Freud) 2. Final common pathways often involve hypoxia‐ ischemia and infection‐inflammation 3. Injury may have a protracted time course 4. Injury may lead to myelin abnormalities, reduced plasticity and decreased cell number 5. Injury changes both developmental trajectory and may sensitive brain to later injury The Evolving Nature of Injury TIME -
Recommendations of the International Parkinson and Movement Disorder
Recommendations of the International Parkinson and Movement Disorder Society Task Force on Nomenclature of Genetic Movement Disorders Connie Marras 1 MD, PhD, Anthony Lang MD 1, Bart P. van de Warrenburg,4 Carolyn Sue, 3 Sarah J. Tabrizi MBChB, PhD, 5 Lars Bertram MD, 6,7 Katja Lohmann 2 PhD, Saadet Mercimek-Mahmutoglu, MD, PhD, 8 Alexandra Durr 9, Vladimir Kostic 10 , Christine Klein 2 MD, 1Toronto Western Hospital Morton and Gloria Shulman Movement Disorders Centre and the Edmond J. Safra Program in Parkinson’s disease, University of Toronto, Toronto, Canada 2Institute of Neurogenetics, University of Lübeck, Lübeck, Germany 3Department of Neurology, Royal North Shore Hospital and Kolling Institute of Medical Research, University of Sydney, St Leonards, NSW 2065, Australia 4Department of Neurology, Donders Institute for Brain, Cognition, and Behaviour, Radboud University Medical Centre, Nijmegen, The Netherlands 5Department of Neurodegenerative Disease, Institute of Neurology, University College London, UK 6 Platform for Genome Analytics, Institute of Neurogenetics, University of Lübeck, Lübeck, Germany 7School of Public Health, Faculty of Medicine, Imperial College, London, UK 8Division of Clinical and Metabolic Genetics, Department of Pediatrics, University of Toronto, The Hospital for Sick Children, Toronto, Canada 9 Sorbonne Université, UPMC Univ Paris 06, UM 75, ICM, F-75013 Paris, France; Inserm, U 1127, ICM, F-75013 Paris, France; Cnrs, UMR 7225, ICM, F-75013 Paris, France; ICM, Paris, F-75013 Paris, France; AP-HP, Hôpital de