MESTINON®(Pyridostigmine Bromide)
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Pyridostigmine in the Treatment of Postural
Pyridostigmine in the Treatment of Postural Orthostatic Tachycardia: A Single-Center Experience KHALIL KANJWAL, M.D.,* BEVERLY KARABIN, PH.D.,* MUJEEB SHEIKH, M.D.,* LAWRENCE ELMER, M.D., PH.D.,† YOUSUF KANJWAL, M.D.,* BILAL SAEED, M.D.,* and BLAIR P. GRUBB, M.D.* From the *Electrophysiology Section, Division of Cardiology, Department of Medicine, The University of Toledo, Toledo, Ohio; and †Department of Neurology, The University of Toledo College of Medicine, Health Science Campus, Toledo, Ohio Background: The long-term efficacy of pyridostigmine, a reversible acetyl cholinesterase inhibitor, in the treatment of postural orthostatic tachycardia syndrome (POTS) patients remains unclear. We report our retrospective, single-center, long-term experience regarding the efficacy and adverse effect profile of pyridostigmine in the treatment of POTS patients. Methods: This retrospective study included an extensive review of electronic charts and data collection in regards to patient demographics, orthostatic parameters, side-effect profile, subjective response to therapy, as well as laboratory studies recorded at each follow-up visit to our institution’s Syncope and Autonomic Disorders Center. The response to pyridostigmine therapy was considered successful if patient had both symptom relief in addition to an objective response in orthostatic hemodynamic parameters (heart rate [HR] and blood pressure). Three hundred patients with POTS were screened for evaluation in this study. Of these 300, 203 patients with POTS who received pyridostigmine therapy were reviewed. Of these 203 patients, 168 were able to tolerate the medication after careful dose titration. The mean follow- up duration in this group of patients was 12 ± 3 (9–15) months. Pyridostigmine improved symptoms of orthostatic intolerance in 88 of 203 (43%) of total patients or 88 of 172 (51%) who were able to tolerate the drug. -
Cardiovascular Monitoring with Acetylcholinesterase Inhibitors: a Clinical Protocol† Jeremy P
Advances in Psychiatric Treatment (2007), vol. 13, 178–184 doi: 10.1192/apt.bp.106.002725 Cardiovascular monitoring with acetylcholinesterase inhibitors: a clinical protocol† Jeremy P. Rowland, John Rigby, Adam C. Harper & Rosalind Rowland Abstract There has been significant anxiety among prescribers regarding the potential for cardiac adverse effects associated with acetylcholinesterase (AChE) inhibitors in Alzheimer’s disease. There is no consensus on how to manage this cardiovascular risk, and memory clinics vary widely in their practice. Review of published evidence reveals that the incidence of cardiovascular side-effects is low, and that serious adverse events are rare. Intensive cardiovascular screening such as pre-treatment electrocardiograms or 24 h cardiac monitoring is not justified. Furthermore, there are no high-risk groups to target. This article suggests pragmatic guidelines for managing cardiovascular risk in patients receiving AChE inhibitors. The guidelines are intended to be easy to incorporate into routine clinical practice in a memory clinic. A few years ago it was estimated that almost 18 thus followed some uncertainty as to how treatment million people worldwide had dementia (Alzheimer’s should be properly managed. Society, 2004), with Alzheimer’s disease accounting Since the manufacturers’ cautions remain (see the for over half of cases (Fratiglioni, 2000). The second- relevant entries in http://emc.medicines.org.uk) and generation acetylcholinesterase (AChE) inhibitors guidance has been unforthcoming, services now vary donepezil, rivastigmine and galantamine were widely in their practice: some, for example, require introduced into clinical practice from 1997 for the electrocardiograms (ECGs) before use and during symptomatic treatment of Alzheimer’s disease, and treatment, whereas others do not. -
Corticosterone and Pyridostigmine/DEET Exposure
HHS Public Access Author manuscript Author ManuscriptAuthor Manuscript Author Neurotoxicology Manuscript Author . Author Manuscript Author manuscript; available in PMC 2019 May 24. Published in final edited form as: Neurotoxicology. 2019 January ; 70: 26–32. doi:10.1016/j.neuro.2018.10.006. Corticosterone and pyridostigmine/DEET exposure attenuate peripheral cytokine expression: Supporting a dominant role for neuroinflammation in a mouse model of Gulf War Illness Lindsay T. Michalovicza, Alicia R. Lockera, Kimberly A. Kellya, Julie V. Millera, Zachary Barnesb,c, Mary Ann Fletcherb,c, Diane B. Millera, Nancy G. Klimasb,c, Mariana Morrisb, Stephen M. Lasleyd, and James P. O’Callaghana,* aHealth Effects Laboratory Division, Centers for Disease Control and Prevention, National Institute for Occupational Safety and Health, Morgantown, WV, USA bInstitute for Neuro-Immune Medicine, Nova Southeastern University, Ft. Lauderdale, FL, USA cMiami Veterans Affairs Medical Center, Miami, FL, USA dDepartment of Cancer Biology & Pharmacology, University of Illinois College of Medicine at Peoria, Peoria, IL, USA Abstract Gulf War Illness (GWI) is a chronic multi-symptom disorder experienced by as many as a third of the veterans of the 1991 Gulf War; the constellation of “sickness behavior” symptoms observed in ill veterans is suggestive of a neuroimmune involvement. Various chemical exposures and conditions in theater have been implicated in the etiology of the illness. Previously, we found that GW-related organophosphates (OPs), such as the sarin surrogate, DFP, and chlorpyrifos, cause neuroinflammation. The combination of these exposures with exogenous corticosterone (CORT), mimicking high physiological stress, exacerbates the observed neuroinflammation. The potential relationship between the effects of OPs and CORT on the brain versus inflammation in the periphery has not been explored. -
Title 16. Crimes and Offenses Chapter 13. Controlled Substances Article 1
TITLE 16. CRIMES AND OFFENSES CHAPTER 13. CONTROLLED SUBSTANCES ARTICLE 1. GENERAL PROVISIONS § 16-13-1. Drug related objects (a) As used in this Code section, the term: (1) "Controlled substance" shall have the same meaning as defined in Article 2 of this chapter, relating to controlled substances. For the purposes of this Code section, the term "controlled substance" shall include marijuana as defined by paragraph (16) of Code Section 16-13-21. (2) "Dangerous drug" shall have the same meaning as defined in Article 3 of this chapter, relating to dangerous drugs. (3) "Drug related object" means any machine, instrument, tool, equipment, contrivance, or device which an average person would reasonably conclude is intended to be used for one or more of the following purposes: (A) To introduce into the human body any dangerous drug or controlled substance under circumstances in violation of the laws of this state; (B) To enhance the effect on the human body of any dangerous drug or controlled substance under circumstances in violation of the laws of this state; (C) To conceal any quantity of any dangerous drug or controlled substance under circumstances in violation of the laws of this state; or (D) To test the strength, effectiveness, or purity of any dangerous drug or controlled substance under circumstances in violation of the laws of this state. (4) "Knowingly" means having general knowledge that a machine, instrument, tool, item of equipment, contrivance, or device is a drug related object or having reasonable grounds to believe that any such object is or may, to an average person, appear to be a drug related object. -
Acetylcholinesterase Inhibitor Pyridostigmine Bromide Attenuates Gut Pathology and Bacterial Dysbiosis in a Murine Model of Ulcerative Colitis
Florida International University FIU Digital Commons HWCOM Faculty Publications Herbert Wertheim College of Medicine 10-23-2019 Acetylcholinesterase Inhibitor Pyridostigmine Bromide Attenuates Gut Pathology and Bacterial Dysbiosis in a Murine Model of Ulcerative Colitis SP Singh Hitendra S. Chand S. Banerjee H. Agarwal V. Raizada See next page for additional authors Follow this and additional works at: https://digitalcommons.fiu.edu/com_facpub Part of the Medicine and Health Sciences Commons This work is brought to you for free and open access by the Herbert Wertheim College of Medicine at FIU Digital Commons. It has been accepted for inclusion in HWCOM Faculty Publications by an authorized administrator of FIU Digital Commons. For more information, please contact [email protected]. Authors SP Singh, Hitendra S. Chand, S. Banerjee, H. Agarwal, V. Raizada, S. Roy, and M. Sopori Digestive Diseases and Sciences (2020) 65:141–149 https://doi.org/10.1007/s10620-019-05838-6 ORIGINAL ARTICLE Acetylcholinesterase Inhibitor Pyridostigmine Bromide Attenuates Gut Pathology and Bacterial Dysbiosis in a Murine Model of Ulcerative Colitis Shashi P. Singh1 · Hitendra S. Chand2 · Santanu Banerjee3 · Hemant Agarwal4 · Veena Raizada4 · Sabita Roy3 · Mohan Sopori1 Received: 30 March 2019 / Accepted: 10 September 2019 / Published online: 23 October 2019 © The Author(s) 2019 Abstract Background Ulcerative colitis (UC) is a Th2 infammatory bowel disease characterized by increased IL-5 and IL-13 expres- sion, eosinophilic/neutrophilic infltration, decreased mucus production, impaired epithelial barrier, and bacterial dysbiosis of the colon. Acetylcholine and nicotine stimulate mucus production and suppress Th2 infammation through nicotinic receptors in lungs but UC is rarely observed in smokers and the mechanism of the protection is unclear. -
Malathion Human Health and Ecological Risk Assessment Final Report
SERA TR-052-02-02c Malathion Human Health and Ecological Risk Assessment Final Report Submitted to: Paul Mistretta, COR USDA/Forest Service, Southern Region 1720 Peachtree RD, NW Atlanta, Georgia 30309 USDA Forest Service Contract: AG-3187-C-06-0010 USDA Forest Order Number: AG-43ZP-D-06-0012 SERA Internal Task No. 52-02 Submitted by: Patrick R. Durkin Syracuse Environmental Research Associates, Inc. 5100 Highbridge St., 42C Fayetteville, New York 13066-0950 Fax: (315) 637-0445 E-Mail: [email protected] Home Page: www.sera-inc.com May 12, 2008 Table of Contents Table of Contents............................................................................................................................ ii List of Figures................................................................................................................................. v List of Tables ................................................................................................................................. vi List of Appendices ......................................................................................................................... vi List of Attachments........................................................................................................................ vi ACRONYMS, ABBREVIATIONS, AND SYMBOLS ............................................................... vii COMMON UNIT CONVERSIONS AND ABBREVIATIONS.................................................... x CONVERSION OF SCIENTIFIC NOTATION .......................................................................... -
Guideline for Preoperative Medication Management
Guideline: Preoperative Medication Management Guideline for Preoperative Medication Management Purpose of Guideline: To provide guidance to physicians, advanced practice providers (APPs), pharmacists, and nurses regarding medication management in the preoperative setting. Background: Appropriate perioperative medication management is essential to ensure positive surgical outcomes and prevent medication misadventures.1 Results from a prospective analysis of 1,025 patients admitted to a general surgical unit concluded that patients on at least one medication for a chronic disease are 2.7 times more likely to experience surgical complications compared with those not taking any medications. As the aging population requires more medication use and the availability of various nonprescription medications continues to increase, so does the risk of polypharmacy and the need for perioperative medication guidance.2 There are no well-designed trials to support evidence-based recommendations for perioperative medication management; however, general principles and best practice approaches are available. General considerations for perioperative medication management include a thorough medication history, understanding of the medication pharmacokinetics and potential for withdrawal symptoms, understanding the risks associated with the surgical procedure and the risks of medication discontinuation based on the intended indication. Clinical judgement must be exercised, especially if medication pharmacokinetics are not predictable or there are significant risks associated with inappropriate medication withdrawal (eg, tolerance) or continuation (eg, postsurgical infection).2 Clinical Assessment: Prior to instructing the patient on preoperative medication management, completion of a thorough medication history is recommended – including all information on prescription medications, over-the-counter medications, “as needed” medications, vitamins, supplements, and herbal medications. Allergies should also be verified and documented. -
On Tardive Dyskinesia'
J Neurol Neurosurg Psychiatry: first published as 10.1136/jnnp.37.8.941 on 1 August 1974. Downloaded from Journial of Neurology, Neurosurgery, alid Psychiatry, 1974, 27, 941-947 Effect of cholinergic and anticholinergic agents on tardive dyskinesia' H. L. KLAWANS2 AND R. RUBOVITS Fr-om the Divisioni of Neurology, Michael Reese Medical Center, Chicago, Illinois anid the Departmentt ofPsychiatry, University of Maryland, Baltimore, Maryland, U.S.A. SYNOPSIS Tardive dyskinesia, like several other choreiform disorders, is felt to be primarily related to dopaminergic activity within the striatum. Physostigmine has been demonstrated to improve the abnormal movements in patients with tardive dyskinesia while scopolamine tends to aggravate abnormal movements and in some cases elicits abnormal movement not previously observed. This evidence supports the hypothesis that anticholinergic therapy in patients prone to develop tardive dyskinesia may increase the incidence of this disorder the threshold for the by lowering appearance guest. Protected by copyright. of these movements. Tardive dyskinesia is a well-recognized side- been fully elucidated. However, there is evidence effect of long-term neuroleptic therapy (Crane, which suggests that dopamine acting at striatal 1968). The most prominent manifestation dopaminergic receptor sites may be closely is lingual-facial-buccal dyskinesia. Limb and related to the initiation of these choreiform trunkal chorea may accompany the facial move- movements in several clinical settings. Drugs ments (Paulson, 1968). The syndrome is most which alter the availability of dopamine at often seen in patients ranging in age from 50 to dopaminergic receptor sites alter choreiform 70 years who are most often diagnosed as symptomatology. Huntington's chorea is re- suffering chronic deteriorating schizophrenia. -
Galantamine 4Mg/Ml Oral Solution Package Leaflet
Package leaflet: Information for the user Galantamine 4mg/ml Oral Solution Read all of this leaflet carefully before you start taking this medicine because it contains important information for you. n Keep this leaflet. You may need to read it again. n If you have any further questions, ask your doctor or pharmacist. n This medicine has been prescribed for you only. Do not pass it on to others. It may harm them, even if their signs of illness are the same as yours. n If you get any side effects, talk to your doctor or pharmacist. This includes any possible side effects not listed in this leaflet. See section 4. What is in this leaflet: 1. What Galantamine Oral Solution is and what it is used for 2. What you need to know before you take Galantamine Oral Solution 3. How to take Galantamine Oral Solution 4. Possible side effects 5. How to store Galantamine Oral Solution 6. Contents of the pack and other information 1. What Galantamine Oral Solution is and what it is used for What your medicine is The full name of your medicine is Galantamine 4mg/ml Oral Solution. In this leaflet the shorter name Galantamine is used. Galantamine belongs to a group of medicines known as ‘anti-dementia’ medicines. What your medicine is used for Galantamine is used in adults to treat the symptoms of mild to moderately severe Alzheimer’s disease. This is a type of dementia that alters the way the brain works. Alzheimer’s disease causes memory loss, confusion and changes in behaviour, which make it increasingly difficult to carry out normal daily tasks. -
Pharmaceuticals As Environmental Contaminants
PharmaceuticalsPharmaceuticals asas EnvironmentalEnvironmental Contaminants:Contaminants: anan OverviewOverview ofof thethe ScienceScience Christian G. Daughton, Ph.D. Chief, Environmental Chemistry Branch Environmental Sciences Division National Exposure Research Laboratory Office of Research and Development Environmental Protection Agency Las Vegas, Nevada 89119 [email protected] Office of Research and Development National Exposure Research Laboratory, Environmental Sciences Division, Las Vegas, Nevada Why and how do drugs contaminate the environment? What might it all mean? How do we prevent it? Office of Research and Development National Exposure Research Laboratory, Environmental Sciences Division, Las Vegas, Nevada This talk presents only a cursory overview of some of the many science issues surrounding the topic of pharmaceuticals as environmental contaminants Office of Research and Development National Exposure Research Laboratory, Environmental Sciences Division, Las Vegas, Nevada A Clarification We sometimes loosely (but incorrectly) refer to drugs, medicines, medications, or pharmaceuticals as being the substances that contaminant the environment. The actual environmental contaminants, however, are the active pharmaceutical ingredients – APIs. These terms are all often used interchangeably Office of Research and Development National Exposure Research Laboratory, Environmental Sciences Division, Las Vegas, Nevada Office of Research and Development Available: http://www.epa.gov/nerlesd1/chemistry/pharma/image/drawing.pdfNational -
ENLON-PLUS (Edrophonium Chloride, USP and Atropine Sulfate, USP) Injection
NDA 19-677/S-005 NDA 19-678/S-005 Page 3 ENLON-PLUS (edrophonium chloride, USP and atropine sulfate, USP) Injection Rx only DESCRIPTION ENLON-PLUS (edrophonium chloride, USP and atropine sulfate, USP) Injection, for intravenous use, is a sterile, nonpyrogenic, nondepolarizing neuromuscular relaxant antagonist. ENLON-PLUS is a combination drug containing a rapid acting acetylcholinesterase inhibitor, edrophonium chloride, and an anticholinergic, atropine sulfate. Chemically, edrophonium chloride is ethyl (m-hydroxyphenyl) dimethylammonium chloride; its structural formula is: Molecular Formula: C10H16ClNO Molecular Weight: 201.70 Chemically, atropine sulfate is: endo-(±)-alpha-(hydroxymethyl)-8-methyl-8-azabicyclo [3.2.1]oct-3-yl benzeneacetate sulfate (2:1) monohydrate. Its structural formula is: Molecular Formula: (C17H23NO3)2·H2SO4·H2O NDA 19-677/S-005 NDA 19-678/S-005 Page 4 Molecular Weight: 694.84 ENLON-PLUS contains in each mL of sterile solution: 5 mL Ampuls: 10 mg edrophonium chloride and 0.14 mg atropine sulfate compounded with 2.0 mg sodium sulfite as a preservative and buffered with sodium citrate and citric acid. The pH range is 4.0- 5.0. 15 mL Multidose Vials: 10 mg edrophonium chloride and 0.14 mg atropine sulfate compounded with 2.0 mg sodium sulfite and 4.5 mg phenol as a preservative and buffered with sodium citrate and citric acid. The pH range is 4.0-5.0. CLINICAL PHARMACOLOGY Pharmacodynamics ENLON-PLUS (edrophonium chloride, USP and atropine sulfate, USP) Injection is a combination of an anticholinesterase agent, which antagonizes the action of nondepolarizing neuromuscular blocking drugs, and a parasympatholytic (anticholinergic) drug, which prevents the muscarinic effects caused by inhibition of acetylcholine breakdown by the anticholinesterase. -
Integrated Approach for Identifying the Molecular, Cellular, and Host Responses to Chemical Insults
Integrated Approach for Identifying the Molecular, Cellular, and Host Responses to Chemical Insults Audrey E. Fischer, Emily P. English, Julia B. Patrone, Kathlyn Santos, Jody B. G. Proescher, Rachel S. Quizon, Kelly A. Van Houten, Robert S. Pilato, Eric J. Van Gieson, and Lucy M. Carruth e performed a pilot study to characterize the molecular, cellular, and whole-organism response to nonlethal chemical agent exposure in the central nervous system. Multiple methodologies were applied to measure in vitro enzyme inhibition, neuronal cell pathway signaling, and in vivo zebrafish neural development in response to challenge with two different classes of chemical compounds. While all compounds tested exhibited expected enzyme inhibitory activity against acetylcholinesterase (AChE), a well-characterized target of chemical agents, distinct differences between chemical exposures were detected in cellular toxicity and pathway target responses and were tested in a zebrafish model. Some of these differences have not been detected using conventional chemical toxicity screening methods. Taken together, the data demonstrate the potential value of an integrated, multimethodological approach for improved target and pathway identification for subsequent diagnostic and therapeutic biomarker development. INTRODUCTION To build capability and leverage new and growing cell models to complete living organisms. Regardless of biology and chemistry expertise at APL, a collabora- the model selected, challenges exist in sample collection, tive, cross-departmental effort was established through a dose determination, and biases inherent in each assay/ series of related independent research and development technology. Therefore, multiple experimental methodol- (IR&D) projects. The focus of this effort was on mitiga- ogies brought to bear on a particular biological question tion of chemical and biological threat agents.