(Antimuscarinic) Drugs?
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Table 2. 2012 AGS Beers Criteria for Potentially
Table 2. 2012 AGS Beers Criteria for Potentially Inappropriate Medication Use in Older Adults Strength of Organ System/ Recommendat Quality of Recomm Therapeutic Category/Drug(s) Rationale ion Evidence endation References Anticholinergics (excludes TCAs) First-generation antihistamines Highly anticholinergic; Avoid Hydroxyzin Strong Agostini 2001 (as single agent or as part of clearance reduced with e and Boustani 2007 combination products) advanced age, and promethazi Guaiana 2010 Brompheniramine tolerance develops ne: high; Han 2001 Carbinoxamine when used as hypnotic; All others: Rudolph 2008 Chlorpheniramine increased risk of moderate Clemastine confusion, dry mouth, Cyproheptadine constipation, and other Dexbrompheniramine anticholinergic Dexchlorpheniramine effects/toxicity. Diphenhydramine (oral) Doxylamine Use of diphenhydramine in Hydroxyzine special situations such Promethazine as acute treatment of Triprolidine severe allergic reaction may be appropriate. Antiparkinson agents Not recommended for Avoid Moderate Strong Rudolph 2008 Benztropine (oral) prevention of Trihexyphenidyl extrapyramidal symptoms with antipsychotics; more effective agents available for treatment of Parkinson disease. Antispasmodics Highly anticholinergic, Avoid Moderate Strong Lechevallier- Belladonna alkaloids uncertain except in Michel 2005 Clidinium-chlordiazepoxide effectiveness. short-term Rudolph 2008 Dicyclomine palliative Hyoscyamine care to Propantheline decrease Scopolamine oral secretions. Antithrombotics Dipyridamole, oral short-acting* May -
Module Two the Clinical Neurotoxicology of Chemical Terrorism
Chemical Agents of Opportunity for Terrorism: TICs & TIMs! Module Two The Clinical Neurotoxicology of Chemical Terrorism Training Support Package 1 Chemical Agents of Opportunity for Terrorism: TICs & TIMs Goals and Objectives • Recognize toxic syndromes that effect the nervous system – Sedation – Convulsions – Hallucinations • Know unique clinical effects of toxins that cause sedation syndromes • List examples of agents of opportunity for each syndrome • Know initial treatment strategy Module Two - The Clinical Neurotoxicology of Chemical Terrorism 2 Chemical Agents of Opportunity for Terrorism: TICs & TIMs Central Nervous System • The CNS is immensely complex – Great target for terrorism • The CNS is central to both our function and our thinking Module Two - The Clinical Neurotoxicology of Chemical Terrorism 3 Chemical Agents of Opportunity for Terrorism: TICs & TIMs The Balance of the Brain • The brain is a fine balance of excitatory and inhibitory influences – Slight alterations in either direction are significant Excitation Inhibition Glutamate Gamma-aminobutyric acid Catecholamines (GABA) Module Two - The Clinical Neurotoxicology of Chemical Terrorism 4 Chemical Agents of Opportunity for Terrorism: TICs & TIMs The Balance of the Brain • In addition, other neurotransmitters influence our mood, our ability to think, remember, etc. Excitation Inhibition Modulators of Thought Processes Serotonin Acetylcholine Module Two - The Clinical Neurotoxicology of Chemical Terrorism 5 Chemical Agents of Opportunity for Terrorism: TICs & TIMs Clinical -
4/23/2015 1 •Psychedelics Or Hallucinogens
4/23/2015 Hallucinogens •Psychedelics or This “classic” hallucinogen column The 2 groups below are quite different produce similar effects From the classic hallucinogens Hallucinogens Drugs Stimulating 5HT Receptors Drugs BLOCKING ACH Receptors • aka “psychotomimetics” LSD Nightshade(Datura) Psilocybin Mushrooms Jimsonweed Morning Glory Seeds Atropine Dimethyltryptamine Scopolamine What do the very mixed group of hallucinogens found around the world share in common? •Drugs Resembling NE Drugs BLOCKING Glutamate Receptors •Peyote cactus Phencyclidine (PCP) •Mescaline Ketamine All contain something that resembles a •Methylated amphetamines like MDMA High dose dextromethorphan •Nutmeg neurotransmitter •New synthetic variations (“bath salts”) •5HT-Like Hallucinogens •LSD History • Serotonin • created by Albert Hofmann for Sandoz Pharmaceuticals LSD • was studying vasoconstriction produced by ergot alkaloids LSD • initial exposure was accidental absorption thru skin • so potent ED is in millionths of a gram (25-250 micrograms) & must be delivered on something else (sugar cube, gelatin square, paper) Psilocybin Activate 5HT2 receptors , especially in prefrontal cortex and limbic areas, but is not readily metabolized •Characteristics of LSD & Other “Typical” •Common Effects Hallucinogens • Sensory distortions (color, size, shape, movement), • Autonomic (mostly sympathetic) changes occur first constantly changing (relatively mild) • Vivid closed eye imagery • Sensory/perceptual changes follow • Synesthesia (crossing of senses – e.g. hearing music -
Protabase Record Display Datura Stramonium L
Protabase Record display www.prota.org Datura stramonium L. Protologue Sp. pl. 1: 179 (1753). Family Solanaceae Chromosome number 2n = 24 Vernacular names Thorn apple, green thorn apple, Jimson weed, Jamestown weed, devil’s apple, devil’s trumpet, stramonium (En). Pomme épineuse, stramoine, datura, feuille du diable, herbe du diable (Fr). Figueira do inferno, pomo espinhoso, erva dos bruxos, palha verde, estramonio (Po). Muranha (Sw). Origin and geographic distribution Datura stramonium is native to the Americas and has been introduced in many tropical, subtropical and even temperate regions. It is a naturalized weed in many African countries, but is probably seriously under-reported. Uses Datura stramonium and Datura metel L. have largely similar medicinal uses throughout the world. The most widely known use of Datura stramonium and of other Datura species is for relieving asthma, cough, tuberculosis and bronchitis by smoking the dried leaves, roots or flowers. ‘Asthma cigarettes’ have been shown to be very effective in some cases, but in other cases they had little or no effect. Cigarettes made with the leaves are also used to treat Parkinson’s disease. A decoction or infusion of leaves is given as a sedative to mental and schizophrenic patients. The leaves are applied as a dressing to cure rheumatic pain, swellings, wounds, gout, burns, ingrown toe-nails, fungal infections, tumours and ulcers. Dried pulverized leaves are dusted on wounds or applied after mixing the powder with fat or Vaseline. In DR Congo pounded fresh root and fresh leaves are soaked in water and the liquid is given in enema as an abortifacient. -
Appendix A: Potentially Inappropriate Prescriptions (Pips) for Older People (Modified from ‘STOPP/START 2’ O’Mahony Et Al 2014)
Appendix A: Potentially Inappropriate Prescriptions (PIPs) for older people (modified from ‘STOPP/START 2’ O’Mahony et al 2014) Consider holding (or deprescribing - consult with patient): 1. Any drug prescribed without an evidence-based clinical indication 2. Any drug prescribed beyond the recommended duration, where well-defined 3. Any duplicate drug class (optimise monotherapy) Avoid hazardous combinations e.g.: 1. The Triple Whammy: NSAID + ACE/ARB + diuretic in all ≥ 65 year olds (NHS Scotland 2015) 2. Sick Day Rules drugs: Metformin or ACEi/ARB or a diuretic or NSAID in ≥ 65 year olds presenting with dehydration and/or acute kidney injury (AKI) (NHS Scotland 2015) 3. Anticholinergic Burden (ACB): Any additional medicine with anticholinergic properties when already on an Anticholinergic/antimuscarinic (listed overleaf) in > 65 year olds (risk of falls, increased anticholinergic toxicity: confusion, agitation, acute glaucoma, urinary retention, constipation). The following are known to contribute to the ACB: Amantadine Antidepressants, tricyclic: Amitriptyline, Clomipramine, Dosulepin, Doxepin, Imipramine, Nortriptyline, Trimipramine and SSRIs: Fluoxetine, Paroxetine Antihistamines, first generation (sedating): Clemastine, Chlorphenamine, Cyproheptadine, Diphenhydramine/-hydrinate, Hydroxyzine, Promethazine; also Cetirizine, Loratidine Antipsychotics: especially Clozapine, Fluphenazine, Haloperidol, Olanzepine, and phenothiazines e.g. Prochlorperazine, Trifluoperazine Baclofen Carbamazepine Disopyramide Loperamide Oxcarbazepine Pethidine -
Ketamine As a General Anesthesia Adjunct Michaela Wilcox, DNP
Ketamine as a General Anesthesia Adjunct Michaela Wilcox, DNP (c), RN Dept. of Nurse Anesthesia, Moffett & Sanders School of Nursing, Samford University Structured Abstract Background Ketamine is a unique anesthetic agent with both anesthetic and analgesic properties. Ketamine is primarily a N-Methyl-D-Aspartic acid (NMDA) antagonist that also works on glutamine, nicotinic, muscarinic, monoaminergic and opioid receptors. The uses of ketamine are numerous and include treatment of chronic pain, acute pain, depression, as a multimodal pain adjunct, opioid-sparing agent and as an adjunct in enhanced recovery after surgery (ERAS) protocols. A 49-year-old female presented for a lumbar lateral interbody fusion extreme, anterior lumbar spine arthrodesis L3/4 with revision and instrumentation. Based on the surgical need for both sensory and motor nerve monitoring intraoperatively, the anesthetic plan included minimal sevoflurane, succinylcholine for induction and a propofol intravenous (IV) infusion with boluses of ketamine to maintain unconsciousness. A bispectral index (BIS) monitor (Aspect Medical Systems, Natick, MA) was placed on the patient’s forehead prior to induction and utilized intraoperatively to maintain a goal of 40-60. General anesthesia was achieved with fentanyl 100 mcg, lidocaine 100 mg, propofol 200 mg, ketamine 50 mg and succinylcholine 160 mg IV. Laryngoscopy was successfully performed using a McGrath MAC video laryngoscope (Medtronic, Minneapolis, MN). Following induction, a propofol IV infusion was initiated and sevoflurane maintained at 0.3 minimum alveolar concentration. Ketamine 10 mg IV was administered every hour. Upon conclusion of the procedure, the patient was extubated and transported to postoperative recovery unit, where she had no complaints of nausea, vomiting or pain. -
Nightshade”—A Hierarchical Classification Approach to T Identification of Hallucinogenic Solanaceae Spp
Talanta 204 (2019) 739–746 Contents lists available at ScienceDirect Talanta journal homepage: www.elsevier.com/locate/talanta Call it a “nightshade”—A hierarchical classification approach to T identification of hallucinogenic Solanaceae spp. using DART-HRMS-derived chemical signatures ∗ Samira Beyramysoltan, Nana-Hawwa Abdul-Rahman, Rabi A. Musah Department of Chemistry, State University of New York at Albany, 1400 Washington Ave, Albany, NY, 12222, USA ARTICLE INFO ABSTRACT Keywords: Plants that produce atropine and scopolamine fall under several genera within the nightshade family. Both Hierarchical classification atropine and scopolamine are used clinically, but they are also important in a forensics context because they are Psychoactive plants abused recreationally for their psychoactive properties. The accurate species attribution of these plants, which Seed species identifiction are related taxonomically, and which all contain the same characteristic biomarkers, is a challenging problem in Metabolome profiling both forensics and horticulture, as the plants are not only mind-altering, but are also important in landscaping as Direct analysis in real time-mass spectrometry ornamentals. Ambient ionization mass spectrometry in combination with a hierarchical classification workflow Chemometrics is shown to enable species identification of these plants. The hierarchical classification simplifies the classifi- cation problem to primarily consider the subset of models that account for the hierarchy taxonomy, instead of having it be based on discrimination between species using a single flat classification model. Accordingly, the seeds of 24 nightshade plant species spanning 5 genera (i.e. Atropa, Brugmansia, Datura, Hyocyamus and Mandragora), were analyzed by direct analysis in real time-high resolution mass spectrometry (DART-HRMS) with minimal sample preparation required. -
Ketamine Psychedelic Psychotherapy
KETAMINE PSYCHEDELIC PSYCHOTHERAPY EVGENY KRUPITSKY AND ELI KOLP INTRODUCTION Ketamine hydrochloride is a general anesthetic which has been used for noncon- ventional applications in substance abuse rehabilitation because of its psychedelic properties. This chapter summarizes the results of the research on KPP (ketamine psychedelic psychotherapy), principally with alcoholics and heroin addicts. Mechanisms underlying the effects of hallucinogen-assisted psychotherapy are addressed. Research illustrates how the temporary but effective anti-addictive benefits for a short period of time can be extended for longer periods of time to improve overall long-term adjustment and level of functioning. Ketamine hydrochloride, a prescription drug used for general anesthesia, induces profound psychedelic experiences when administered in sub-anesthetic .doses. Ketamine was originally synthesized in 1962 by the American chemist Calvin Stevens, and in 1966 Parke-Davis patented it for use as an anesthetic in humans. Ketamine became the most widely used anesthetic during the Vietnam War when American anesthesiologists and surgeons became familiar with the agent. In 1970, the U.S. Food and Drug Administration approved the use of ketamine with children, adults, and the elderly. Since that time, ketamine has been widely used in hospitals and for office procedures because of its large margin of safety, rapid onset, and short duration of action. More than 7,000 68 TREATTNG SUBSTANCE ABUSE published reports describe ketamine's high level of effectiveness and its biologi- cal safety (Shapiro et al. 1972; Reich and Silvay 1989; Ross and Fochtman 1995; Dachs and Innes 1997; Bauman et al. 1999; Ersek 2004). Clinical studies have detected no long-term impairment of behavior or personality functioning as a result of ketamine use (Siegal 1978). -
Reference List of Drugs with Potential Anticholinergic Effects 1, 2, 3, 4, 5
ANTICHOLINERGICS: Reference List of Drugs with Potential Anticholinergic Effects 1, 2, 3, 4, 5 J Bareham BSP © www.RxFiles.ca Aug 2021 WHENEVER POSSIBLE, AVOID DRUGS WITH MODERATE TO HIGH ANTICHOLINERGIC ACTIVITY IN OLDER ADULTS (>65 YEARS OF AGE) Low Anticholinergic Activity; Moderate/High Anticholinergic Activity -B in combo Beers Antibiotics Antiparkinsonian Cardiovascular Agents Immunosuppressants ampicillin *ALL AVAILABLE AS amantadine SYMMETREL atenolol TENORMIN azaTHIOprine IMURAN cefOXitin GENERIC benztropine mesylate COGENTIN captopril CAPOTEN cyclosporine NEORAL clindamycin bromocriptine PARLODEL chlorthalidone GENERIC ONLY hydrocortisone CORTEF gentamicin (Oint & Sol’n NIHB covered) carbidopa/levodopa SINEMET digoxin LANOXIN, TOLOXIN methylprednisolone MEDROL piperacillin entacapone COMTAN dilTIAZem CARDIZEM, TIAZAC prednisone WINPRED dipyridamole PERSANTINE, ethopropazine PARSITAN vancomycin phenelzine NARDIL AGGRENOX disopyramide RYTHMODAN Muscle Relaxants pramipexole MIRAPEX Antidepressants baclofen LIORESAL ( on intrathecal only) procyclidine KEMADRIN furosemide LASIX amitriptyline ELAVIL cyclobenzaprine FLEXERIL selegiline ELDEPRYL hydrALAZINE APRESOLINE clomiPRAMINE ANAFRANIL isosorbide ISORDIL methocarbamol ROBAXIN OTC trihexyphenidyl ARTANE desipramine NORPRAMIN metoprolol LOPRESOR orphenadrine NORFLEX OTC doxepin >6mg SINEQUAN Antipsychotics NIFEdipine ADALAT tiZANidine ZANAFLEX A imipramine TOFRANIL quiNIDine GENERIC ONLY C ARIPiprazole ABILIFY & MAINTENA -
Drugs That Can Cause Delirium (Anticholinergic / Toxic Metabolites)
Drugs that can Cause Delirium (anticholinergic / toxic metabolites) Deliriants (drugs causing delirium) Prescription drugs . Central acting agents – Sedative hypnotics (e.g., benzodiazepines) – Anticonvulsants (e.g., barbiturates) – Antiparkinsonian agents (e.g., benztropine, trihexyphenidyl) . Analgesics – Narcotics (NB. meperidine*) – Non-steroidal anti-inflammatory drugs* . Antihistamines (first generation, e.g., hydroxyzine) . Gastrointestinal agents – Antispasmodics – H2-blockers* . Antinauseants – Scopolamine – Dimenhydrinate . Antibiotics – Fluoroquinolones* . Psychotropic medications – Tricyclic antidepressants – Lithium* . Cardiac medications – Antiarrhythmics – Digitalis* – Antihypertensives (b-blockers, methyldopa) . Miscellaneous – Skeletal muscle relaxants – Steroids Over the counter medications and complementary/alternative medications . Antihistamines (NB. first generation) – diphenhydramine, chlorpheniramine). Antinauseants – dimenhydrinate, scopolamine . Liquid medications containing alcohol . Mandrake . Henbane . Jimson weed . Atropa belladonna extract * Requires adjustment in renal impairment. From: K Alagiakrishnan, C A Wiens. (2004). An approach to drug induced delirium in the elderly. Postgrad Med J, 80, 388–393. Delirium in the Older Person: A Medical Emergency. Island Health www.viha.ca/mhas/resources/delirium/ Drugs that can cause delirium. Reviewed: 8-2014 Some commonly used medications with moderate to high anticholinergic properties and alternative suggestions Type of medication Alternatives with less deliriogenic -
Stability and Compatibility of Combinations of Hydromorphone
The Canadian Journal of Hospital Pharmacy - Volume 46, No. 2, April 1993 61 Stability and Compatibility of Combinations oman of Hydromorphone and Dimenhydrinate, ations Lorazepam or Prochlorperazine Jnally >hoto- Scott E. Walker, John Iazzetta, Carlo De Angelis and Danny W.C. Lau laser :ii, in figure ABSTRACT RESUME .Each The stability and compatibility of combinations of hydro On a melange diverses solutions d'hydromorphone .rabic morphone (2, 10 and 40 mg/ml) admixed separately with (2, 10 et 40 mg/ml) avec, separemen( un volume egal :onse- dimenhydrinate (50 mg/ml), prochlorperazine (5 mg/ml), d'une solution soit de dimenhydrate (50 mglmL), de 1ld be or lorazepam (4 mg/ml) were tested over a seven-day prochlorperazine (5 mglmL) ou de lorazepam (4 mglmL), Jarate period at 4°C, 23°C and 37°C In addition to visual pour verifier la compatibilite de ces trois medicaments avec lished inspection and pH, the concentration of each component l'hydromorphone et determiner la stabilite du melange ie ac in the binary mixture was determined by a stability binaire pendant sept jours a 4°C, a 23°C et a 37°C ion to indi.cating lifjuid chromatographic method Each test was En plus d'effectuer wz examen visuel et de deter ipt. completed at time zero, one, four, six and seven days after miner le pH, on a dose !es composants des melanges par mixing equal volumes of each medication. une methode de chromatographie en phase lifjuide indi The hydromorphone-dimenhydrinate combination was quant la stabilite. On a analyse !es melanges au moment compatible and stable for 24 hours. -
Anesthesia and Analgesia in Laboratory Animals
GUIDELINES ON ANESTHESIA AND ANALGESIA IN LABORATORY ANIMALS University of South Florida provides the following guidelines for use by IACUC-certified faculty and staff. CONTENTS PAGE A. Background……………………………………………………….…………………………… 1 B. Definitions....……………………………………………………..…………………………….. 2 C. General Considerations……………………………………….,…………………………….. 3 D. Controlled Substances……………………………………….……………………………… 3 E. Pre-Anesthetic Treatments………………………………….………………………………. 4 F. General Anesthetics………………………………………….………………………………. 4 G. Neuromuscular Blocking Agents………………………….……………………………….. 5 H. Monitoring Anesthesia…………………………………….…………………………………. 6 I. Analgesics……………………………………………………………………………………… 7 J. Comments regarding Anesthetics and Analgesics……………………………………... 7 REFERENCE TABLES PAGE I. Signs of Pain and Distress in Laboratory Animals………………………………………… 10 II. Commonly Used Anesthetics and Analgesics for Mice….………..…...….………...…… 11 III. Commonly Used Anesthetics and Analgesics for Rats……………………………...…… 12 IV. Commonly Used Anesthetics and Analgesics for Gerbils……….……………..…….. 13 V. Commonly Used Anesthetics and Analgesics for Hamsters…….……………..……. 14 VI. Commonly Used Anesthetics and Analgesics for Guinea Pigs….…………….….……. 15 VII. Commonly Used Anesthetics and Analgesics for Rabbits.……...…………….………… 16 VIII. Commonly Used Anesthetics and Analgesics for Dogs.…………………….…………… 17 IX. Commonly Used Anesthetics and Analgesics for Cats.……………………..…………… 18 X. Commonly Used Anesthetics and Analgesics for Pigs ..……………..….………………..19 XI. Commonly Used Anesthetics and Analgesics