Common Antidotes Used in the ICU
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EH&S COVID-19 Chemical Disinfectant Safety Information
COVID-19 CHEMICAL DISINFECTANT SAFETY INFORMATION Updated June 24, 2020 The COVID-19 pandemic has caused an increase in the number of disinfection products used throughout UW departments. This document provides general information about EPA-registered disinfectants, such as potential health hazards and personal protective equipment recommendations, for the commonly used disinfectants at the UW. Chemical Disinfectant Base / Category Products Potential Hazards Controls ● Ethyl alcohol Highly flammable and could form explosive Disposable nitrile gloves Alcohols ● ● vapor/air mixtures. ● Use in well-ventilated areas away from o Clorox 4 in One Disinfecting Spray Ready-to-Use ● May react violently with strong oxidants. ignition sources ● Alcohols may de-fat the skin and cause ● Wear long sleeve shirt and pants ● Isopropyl alcohol dermatitis. ● Closed toe shoes o Isopropyl Alcohol Antiseptic ● Inhalation of concentrated alcohol vapor 75% Topical Solution, MM may cause irritation of the respiratory tract (Ready to Use) and effects on the central nervous system. o Opti-Cide Surface Wipes o Powell PII Disinfectant Wipes o Super Sani Cloth Germicidal Wipe 201 Hall Health Center, Box 354400, Seattle, WA 98195-4400 206.543.7262 ᅵ fax 206.543.3351ᅵ www.ehs.washington.edu ● Formaldehyde Formaldehyde in gas form is extremely Disposable nitrile gloves for Aldehydes ● ● flammable. It forms explosive mixtures with concentrations 10% or less ● Paraformaldehyde air. ● Medium or heavyweight nitrile, neoprene, ● Glutaraldehyde ● It should only be used in well-ventilated natural rubber, or PVC gloves for ● Ortho-phthalaldehyde (OPA) areas. concentrated solutions ● The chemicals are irritating, toxic to humans ● Protective clothing to minimize skin upon contact or inhalation of high contact concentrations. -
Drug Interactions of Some Commonly Used Drugs in Dermatology
Table Drug interactions of some commonly used drugs in dermatology M. J. Cyriac Department of Dermatology and Venereology, Medical College, Kottayam, India. Address for correspondence: Dr. M. J. Cyriac, Professor and Head, Department of Dermatology and Venereology, Medical College, Kottayam, India. E-mail: [email protected] Drug interactions leading to serious adverse effects are alternative medicines or food should also be borne in to be cautiously watched for when multiple drugs are mind.2 Increased risk of drug induced toxicity or used simultaneously.1 It is important for the physician therapeutic failure can occur when a new drug is added to be aware of these interactions. Although in many to a treatment regimen. It is impossible to remember instances the adverse interaction does not reach a all possible drug interactions. A ready to refer checklist magnitude of recognizable clinical expression, rarely is useful as a handy reference. it can result in a serious adverse outcome. Some of the commonly used drugs in dermatology and Adverse drug interactions may lead to increased their interactions, resultant clinical effect and possible toxicity, decreased efficacy or both. The possibility of underlying mechanisms are given in Table 1. Table 2 lists interaction with non-prescription drugs, herbal or the drugs with their relative risk for inducing interactions. Table 1: Drug interactions of some commonly used drugs Drug Interacting drug Adverse effect Remarks Erythromycin/Clarithromycin Theophylline Theophylline toxicity Precipitates -
Preventing Inhalant Abuse
A Parent’s Guide to 800.232.4424 (Voice/TTY) 860.793.9813 (Fax) www.ctclearinghouse.org Preventing Inhalant Abuse A Library and Resource Center on Alcohol, Tobacco, Other Drugs, Mental Health and Wellness Inhalant Abuse: It's Deadly. Inhalant abuse can What are the effects of inhalant abuse? kill. Sniffing can cause sickness and death. For example, It can kill suddenly, and it can kill those who sniff for victims may become nauseated, forgetful, and unable the first time. to see things clearly. Victims may lose control of their body, including the use of arms and legs. These effects Every year, young people in this country die of can last 15 to 45 minutes after sniffing. inhalant abuse. Hundreds suffer severe consequences, including permanent brain damage, loss of muscle In addition, sniffing can severely damage many parts control, and destruction of the heart, blood, kidney, of the body, including the brain, heart, liver, kidneys, liver, nerves, and bone marrow. and nerves. Ordinary household products, which can Even worse, victims can die suddenly -- without any be safely used for legitimate purposes, warning. "Sudden Sniffing Death Syndrome" can occur can be problematic in the hands of an during or right after sniffing. The heart begins to inhalant abuser. overwork, beating rapidly but unevenly, which can lead to cardiac arrest. Even first-time abusers have Today more than 1,000 common household products been known to die from sniffing inhalants. are commonly abused. The National Institute on Drug Abuse reported that one in five American teenagers How can you tell if a young person is an inhalant have used inhalants to get high. -
Mapping the Dissociated Body
Lesley University DigitalCommons@Lesley Graduate School of Arts and Social Sciences Expressive Therapies Capstone Theses (GSASS) Spring 5-16-2020 Mapping the Dissociated Body Elizabeth Hough [email protected] Follow this and additional works at: https://digitalcommons.lesley.edu/expressive_theses Part of the Social and Behavioral Sciences Commons Recommended Citation Hough, Elizabeth, "Mapping the Dissociated Body" (2020). Expressive Therapies Capstone Theses. 239. https://digitalcommons.lesley.edu/expressive_theses/239 This Thesis is brought to you for free and open access by the Graduate School of Arts and Social Sciences (GSASS) at DigitalCommons@Lesley. It has been accepted for inclusion in Expressive Therapies Capstone Theses by an authorized administrator of DigitalCommons@Lesley. For more information, please contact [email protected], [email protected]. Running Head: MAPPING THE DISSOCIATED BODY 1 Mapping the Dissociated Body Elizabeth Hough Lesley University Running Head: MAPPING THE DISSOCIATED BODY 2 Abstract This capstone thesis explored the use of body mapping and body scans as a tool for assessing and tracking somatic dissociation and embodiment. The researcher utilized a client- centered approach and mindfulness-based interventions and theory to ground the work with the clients. While there were a variety of questionnaire-based tools for assessing dissociation with clients, many of them were lacking in the somatic component of dissociation. The available assessments were also exclusively self-reported and written or verbal, which had the potential to result in biased reporting. Clients may have also struggled to identify their level of somatic dissociation due to an inherent disconnection or dismissal of their somatic experience. This research described two case studies in which body scans and body mapping were utilized as a method to assess and track the client’s level of body dissociation and embodiment. -
DRI® Digoxin Assay
DRI® Digoxin Assay For In Vitro Diagnostic Use 1669 (25 mL, 8 mL Kit) 1669-A (25 mL, 8 mL Kit) Intended Use Reagent Preparation and Storage The DRI® Digoxin Assay is intended for the quantitative determination of digoxin in human The reagents are ready for use. No reagent preparation is required. All assay components, serum or plasma. when stored properly at 2-8°C, are stable until the expiration date indicated on the label. Summary and Explanation of the Test Specimen Collection and Handling Digitalis is known to have the ability to increase the force and velocity of myocardial Pharmacokinetic factors, such as dosage form, mode of administration, concomitant drug therapy contraction.1 Digoxin is one of the most commonly used forms of digitalis in the treatment as well as the patient’s clinical condition may influence the correct time of sample collection.2,3 For of congestive heart failure and arrhythmia such as atrial fibrillation and atrial flutter. The reliable interpretation of results, a serum specimen should be collected 6 to 8 hours following therapeutic range of digoxin is narrow. Futhermore, individual differences in drug absorption, the last oral dose of digoxin. Either serum or heparin and EDTA treated plasma samples can distribution, metabolism, and excretion as well as factors such as concurrent use of other drugs be used with the assay. Samples may be stored refrigerated at 2-8°C for up to 7 days or frozen and illness can also alter the serum concentration in response to a given dosage. Monitoring (-20°C) for up to 6 months. -
Benzodiazepine & Alcohol Co-Ingestion
The Journal of COLLEGIATE EMERGENCY MEDICAL SERVICES ISSN: 2576-3687 (Print) 2576-3695 (Online) Journal Website: https://www.collegeems.com Benzodiazepine & Alcohol Co-Ingestion: Implications for Collegiate-Based Emergency Medical Services David Goroff & Alexander Farinelli Keywords: alcohol, benzodiazepines, collegiate-based emergency medical services, toxicology Citation (AMA Style): Goroff D, Farinelli A. Benzodiazepine and Alcohol Co-In- gestion. J Coll Emerg Med Serv. 2018; 1(2): 19-23. https://doi.org/10.30542/ JCEMS.2018.01.02.04 Electronic Link: https://doi.org/10.30542/JCEMS.2018.01.02.04 Published Online: August 8, 2018 Published in Print: August 13, 2018 (Volume 1: Issue 2) Copyright: © 2018 Goroff & Farinelli. This is an OPEN ACCESS article distributed under the terms of the Creative Commons Attribu- tion 4.0 International (CC BY 4.0) License, which permits unrestrict- ed use, distribution, and reproduction in any medium, provided the original author and source are credited. The full license is available at: https://creativecommons.org/licenses/by/4.0/ CLINICAL REVIEW Benzodiazepine & Alcohol Co-Ingestion: Implications for Collegiate-Based Emergency Medical Services David Goroff, MS, NRP & Alexander Farinelli, BS, NRP ABSTRACT KEYWORDS: alcohol, The co-ingestion of benzodiazepines and alcohol presents a unique challenge to colle- benzodiazepines, collegiate- giate EMS providers, due to the pharmacological interaction of the two substances and based emergency medical the variable patient presentations. Given the likelihood that collegiate EMS providers services, toxicology will be called to treat a patient who has co-ingested benzodiazepines and alcohol, this Corresponding Author and review discusses the relevant pharmacology, clinical presentation, and treatment of these Author Affiliations:Listed co-ingestion patients. -
Acute Poisoning: Understanding 90% of Cases in a Nutshell S L Greene, P I Dargan, a L Jones
204 REVIEW Postgrad Med J: first published as 10.1136/pgmj.2004.027813 on 5 April 2005. Downloaded from Acute poisoning: understanding 90% of cases in a nutshell S L Greene, P I Dargan, A L Jones ............................................................................................................................... Postgrad Med J 2005;81:204–216. doi: 10.1136/pgmj.2004.024794 The acutely poisoned patient remains a common problem Paracetamol remains the most common drug taken in overdose in the UK (50% of intentional facing doctors working in acute medicine in the United self poisoning presentations).19 Non-steroidal Kingdom and worldwide. This review examines the initial anti-inflammatory drugs (NSAIDs), benzodiaze- management of the acutely poisoned patient. Aspects of pines/zopiclone, aspirin, compound analgesics, drugs of misuse including opioids, tricyclic general management are reviewed including immediate antidepressants (TCAs), and selective serotonin interventions, investigations, gastrointestinal reuptake inhibitors (SSRIs) comprise most of the decontamination techniques, use of antidotes, methods to remaining 50% (box 1). Reductions in the price of drugs of misuse have led to increased cocaine, increase poison elimination, and psychological MDMA (ecstasy), and c-hydroxybutyrate (GHB) assessment. More common and serious poisonings caused toxicity related ED attendances.10 Clinicians by paracetamol, salicylates, opioids, tricyclic should also be aware that severe toxicity can result from exposure to non-licensed pharmaco- -
Guideline on Antidote Availability for Emergency Departments January 2017
Royal College of Emergency Medicine and National Poisons Information Service Guideline on Antidote Availability for Emergency Departments January 2017 TOXBASE and/or the BNF should be consulted for further advice on doses and indications for antidote administration and, if necessary, the National Poisons Information Service (NPIS) should be telephoned for more patient-specific advice. Contact details for NPIS are available on TOXBASE. Additional drugs that are used in the poisoned patient that are widely available in ED are not listed in the table – in particular it is important to ensure that insulin, benzodiazepines (diazepam and/or lorazepam), glyceryl trinitrate or isosorbide dinitrate and magnesium are immediately available in the ED. The following drugs should be immediately available in the ED or any area where poisoned patients are initially treated. These drugs should be held in a designated storage facility* The stock held should be sufficient to initiate treatment (stocking guidance is in Appendix 1). Drug Indication Acetylcysteine Paracetamol Activated charcoal Many oral poisons Atropine Organophosphorus or carbamate insecticides Bradycardia Calcium chloride Calcium channel blockers Systemic effects of hydrofluoric acid Calcium gluconate Local infiltration for hydrofluoric acid Calcium gluconate gel Hydrofluoric acid Cyanide antidotes Cyanide Dicobalt edetate The choice of antidote depends on the severity of poisoning, certainty of diagnosis and cause Hydroxocobalamin (Cyanokit®) of poisoning/source of cyanide. Sodium nitrite - Dicobalt edetate is the antidote of choice in severe cases when there is a high clinical Sodium thiosulphate suspicion of cyanide poisoning e.g. after cyanide salt exposure. - Hydroxocobalamin (Cyanokit®) should be considered in smoke inhalation victims who have a severe lactic acidosis, are comatose, in cardiac arrest or have significant cardiovascular compromise - Sodium nitrite may be used if dicobalt edetate is not available. -
Uses and Administration Adverse Effects and Precautions Pharmacokinetics Uses and Administration
1549 The adverse effects of dicobalt edetate are more severe in year-old child: case report and review of literature. Z Kardiol 2005; 94: References. 817-2 3. the absence of cyanide. Therefore, dicobalt edetate should I. Schaumann W, et a!. Kinetics of the Fab fragments of digoxin antibodies and of bound digoxin in patients with severe digoxin intoxication. Eur 1 not be given unless cyanide poisoning is confirmed and 30: Administration in renal impairment. In renal impairment, Clin Pharmacol 1986; 527-33. poisoning is severe such as when consciousness is impaired. 2. Ujhelyi MR, Robert S. Pharmacokinetic aspects of digoxin-specific Fab elimination of antibody-bound digoxin or digitoxin is therapy in the management of digitalis toxicity. Clin Pharmacokinet 1995; Oedema. A patient with cyanide toxicity developed delayed1·3 and antibody fragments can be detected in the 28: 483-93. plasma for 2 to 3 weeks after treatment.1 The rebound in 3. Renard C, et al. Pharmacokinetics of dig,'><i<1-sp,eei1ie Fab: effects of severe facial and pulmonary oedema after treatment with decreased renal function and age. 1997; 44: 135-8. dicobalt edetate.1 It has been suggested that when dicobalt free-digoxin concentrations that has been reported after edetate is used, facilities for intubation and resuscitation treatment with digoxin-specific antibody fragments (see P (Jrations should be immediately available. Poisoning, below), occurred much later in patients with r.�p renal impairment than in those with normal renal func Proprietary Preparations (details are given in Volume B) 1. Dodds C, McKnight C. Cyanide toxicity after immersion and the hazards tion. -
XELJANZ (Tofacitinib)
HIGHLIGHTS OF PRESCRIBING INFORMATION Psoriatic Arthritis (in combination with nonbiologic DMARDs) These highlights do not include all the information needed to use XELJANZ 5 mg twice daily or XELJANZ XR 11 mg once daily. (2.2) XELJANZ/XELJANZ XR safely and effectively. See full prescribing Recommended dosage in patients with moderate and severe renal information for XELJANZ. impairment or moderate hepatic impairment is XELJANZ 5 mg once daily. (2, 8.7, 8.8) ® XELJANZ (tofacitinib) tablets, for oral use Ulcerative Colitis ® XELJANZ XR (tofacitinib) extended-release tablets, for oral use XELJANZ 10 mg twice daily for at least 8 weeks; then 5 or 10 mg Initial U.S. Approval: 2012 twice daily. Discontinue after 16 weeks of 10 mg twice daily, if adequate therapeutic benefit is not achieved. Use the lowest effective dose to WARNING: SERIOUS INFECTIONS AND MALIGNANCY maintain response. (2.3) See full prescribing information for complete boxed warning. Recommended dosage in patients with moderate and severe renal impairment or moderate hepatic impairment: half the total daily dosage Serious infections leading to hospitalization or death, including recommended for patients with normal renal and hepatic function. (2, 8.7, tuberculosis and bacterial, invasive fungal, viral, and other 8.8) opportunistic infections, have occurred in patients receiving Dosage Adjustment XELJANZ. (5.1) See the full prescribing information for dosage adjustments by indication If a serious infection develops, interrupt XELJANZ/XELJANZ XR for patients receiving CYP2C19 and/or CYP3A4 inhibitors; in patients until the infection is controlled. (5.1) with moderate or severe renal impairment or moderate hepatic Prior to starting XELJANZ/XELJANZ XR, perform a test for latent impairment; and patients with lymphopenia, neutropenia, or anemia. -
1: Gastro-Intestinal System
1 1: GASTRO-INTESTINAL SYSTEM Antacids .......................................................... 1 Stimulant laxatives ...................................46 Compound alginate products .................. 3 Docuate sodium .......................................49 Simeticone ................................................... 4 Lactulose ....................................................50 Antimuscarinics .......................................... 5 Macrogols (polyethylene glycols) ..........51 Glycopyrronium .......................................13 Magnesium salts ........................................53 Hyoscine butylbromide ...........................16 Rectal products for constipation ..........55 Hyoscine hydrobromide .........................19 Products for haemorrhoids .................56 Propantheline ............................................21 Pancreatin ...................................................58 Orphenadrine ...........................................23 Prokinetics ..................................................24 Quick Clinical Guides: H2-receptor antagonists .......................27 Death rattle (noisy rattling breathing) 12 Proton pump inhibitors ........................30 Opioid-induced constipation .................42 Loperamide ................................................35 Bowel management in paraplegia Laxatives ......................................................38 and tetraplegia .....................................44 Ispaghula (Psyllium husk) ........................45 ANTACIDS Indications: -
Inhalant Abuse Pediatric Care
CLINICAL REPORT Guidance for the Clinician in Rendering Inhalant Abuse Pediatric Care Janet F. Williams, MD, Michael Storck, MD, and the Committee on Substance Abuse and Committee on Native American Child Health ABSTRACT Inhalant abuse is the intentional inhalation of a volatile substance for the purpose of achieving an altered mental state. As an important, yet-underrecognized form of substance abuse, inhalant abuse crosses all demographic, ethnic, and socioeco- nomic boundaries, causing significant morbidity and mortality in school-aged and older children. This clinical report reviews key aspects of inhalant abuse, empha- sizes the need for greater awareness, and offers advice regarding the pediatrician’s role in the prevention and management of this substance abuse problem. TYPES OF CHEMICALS AND PRODUCTS ABUSED The term “inhalant” encompasses a wide range of pharmacologically diverse substances that readily vaporize. Most other substances of abuse are classified by grouping together substances that share a specific central nervous system action or perceived psychoactive effect, but inhalant substances that are abused are grouped by having a common route of drug use. Inhalant abuse, sometimes referred to as solvent or volatile substance abuse, can be better understood when the expansive list of inhalants is classified into 3 groups on the basis of what is currently known pharmacologically: group I includes volatile solvents, fuels, and anesthetics; group II includes nitrous oxide; and group III includes volatile alkyl nitrites (Table 1). This classification is also consistent with reported differences in user populations, patterns of abuse, and associated problems seen clinically.1–3 Drugs that do not www.pediatrics.org/cgi/doi/10.1542/ readily vaporize at room temperature, such as cocaine, heroin, nicotine, or alcohol, peds.2007-0470 can also be abused through inhalation, but characteristic pharmacologic properties doi:10.1542/peds.2007-0470 distinguish these substances from inhalants.