Stimulant Use Disorder
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Methylphenidate Hydrochloride
Application for Inclusion to the 22nd Expert Committee on the Selection and Use of Essential Medicines: METHYLPHENIDATE HYDROCHLORIDE December 7, 2018 Submitted by: Patricia Moscibrodzki, M.P.H., and Craig L. Katz, M.D. The Icahn School of Medicine at Mount Sinai Graduate Program in Public Health New York NY, United States Contact: [email protected] TABLE OF CONTENTS Page 3 Summary Statement Page 4 Focal Point Person in WHO Page 5 Name of Organizations Consulted Page 6 International Nonproprietary Name Page 7 Formulations Proposed for Inclusion Page 8 International Availability Page 10 Listing Requested Page 11 Public Health Relevance Page 13 Treatment Details Page 19 Comparative Effectiveness Page 29 Comparative Safety Page 41 Comparative Cost and Cost-Effectiveness Page 45 Regulatory Status Page 48 Pharmacoepial Standards Page 49 Text for the WHO Model Formulary Page 52 References Page 61 Appendix – Letters of Support 2 1. Summary Statement of the Proposal for Inclusion of Methylphenidate Methylphenidate (MPH), a central nervous system (CNS) stimulant, of the phenethylamine class, is proposed for inclusion in the WHO Model List of Essential Medications (EML) & the Model List of Essential Medications for Children (EMLc) for treatment of Attention-Deficit/Hyperactivity Disorder (ADHD) under ICD-11, 6C9Z mental, behavioral or neurodevelopmental disorder, disruptive behavior or dissocial disorders. To date, the list of essential medications does not include stimulants, which play a critical role in the treatment of psychotic disorders. Methylphenidate is proposed for inclusion on the complimentary list for both children and adults. This application provides a systematic review of the use, efficacy, safety, availability, and cost-effectiveness of methylphenidate compared with other stimulant (first-line) and non-stimulant (second-line) medications. -
Treatment of Stimulant Use Disorders
UW PACC Psychiatry and Addictions Case Conference UW Medicine | Psychiatry and Behavioral Sciences TREATMENT OF STIMULANT USE DISORDERS Matt Iles-Shih, MD Addiction Psychiatry Fellow University Of Washington & VA Puget Sound Health Care System UW PACC ©2017 University of Washington GENERAL DISCLOSURES The University of Washington School of Medicine also gratefully acknowledges receipt of educational grant support for this activity from the Washington State Legislature through the Safety-Net Hospital Assessment, working to expand access to psychiatric services throughout Washington State. UW PACC ©2017 University of Washington SPEAKER DISCLOSURES No conflicts of interest/disclosures UW PACC ©2017 University of Washington OBJECTIVES 1. Brief overview of stimulant-related physiology & epidemiology 2. Recognizing & treating stimulant use disorders: . Diagnosis & management of acute effects (brief) . Psychotherapies (brief) . Pharmacotherapies 3. Special populations – ADHD in stimulant-abusing pts: to Rx, and how? UW PACC ©2017 University of Washington STIMULANTS: What Substances Are We Talking About? Cocaine Amphetamines: – Prescription Meds – Methamphetamine – Multiple other modified amphetamines MDMA (3,4-methylenedioxy-methamphetamine) [Note: mixed stimulant-psychodelic properties, w/↑serotonin > dopamine and abuse >> addiction.] Others: – Cathinones: Khat & Synthetics (e.g., “Bath Salts”) – Piperazine-like substances (various) – Phenylaklylpyrrolidines (various) UW PACC ©2017 University of Washington COMMONALITIES (WHAT MAKES A STIMULANT -
Hallucinogens - LSD, Peyote, Psilocybin, and PCP
Information for Behavioral Health Providers in Primary Care Hallucinogens - LSD, Peyote, Psilocybin, and PCP What are Hallucinogens? Hallucinogenic compounds found in some plants and mushrooms (or their extracts) have been used— mostly during religious rituals—for centuries. Almost all hallucinogens contain nitrogen and are classified as alkaloids. Many hallucinogens have chemical structures similar to those of natural neurotransmitters (e.g., acetylcholine-, serotonin-, or catecholamine-like). While the exact mechanisms by which hallucinogens exert their effects remain unclear, research suggests that these drugs work, at least partially, by temporarily interfering with neurotransmitter action or by binding to their receptor sites. This InfoFacts will discuss four common types of hallucinogens: LSD (d-lysergic acid diethylamide) is one of the most potent mood-changing chemicals. It was discovered in 1938 and is manufactured from lysergic acid, which is found in ergot, a fungus that grows on rye and other grains. Peyote is a small, spineless cactus in which the principal active ingredient is mescaline. This plant has been used by natives in northern Mexico and the southwestern United States as a part of religious ceremonies. Mescaline can also be produced through chemical synthesis. Psilocybin (4-phosphoryloxy-N, N-dimethyltryptamine) is obtained from certain types of mushrooms that are indigenous to tropical and subtropical regions of South America, Mexico, and the United States. These mushrooms typically contain less than 0.5 percent psilocybin plus trace amounts of psilocin, another hallucinogenic substance. PCP (phencyclidine) was developed in the 1950s as an intravenous anesthetic. Its use has since been discontinued due to serious adverse effects. How Are Hallucinogens Abused? The very same characteristics that led to the incorporation of hallucinogens into ritualistic or spiritual traditions have also led to their propagation as drugs of abuse. -
Substance Abuse and Dependence
9 Substance Abuse and Dependence CHAPTER CHAPTER OUTLINE CLASSIFICATION OF SUBSTANCE-RELATED THEORETICAL PERSPECTIVES 310–316 Residential Approaches DISORDERS 291–296 Biological Perspectives Psychodynamic Approaches Substance Abuse and Dependence Learning Perspectives Behavioral Approaches Addiction and Other Forms of Compulsive Cognitive Perspectives Relapse-Prevention Training Behavior Psychodynamic Perspectives SUMMING UP 325–326 Racial and Ethnic Differences in Substance Sociocultural Perspectives Use Disorders TREATMENT OF SUBSTANCE ABUSE Pathways to Drug Dependence AND DEPENDENCE 316–325 DRUGS OF ABUSE 296–310 Biological Approaches Depressants Culturally Sensitive Treatment Stimulants of Alcoholism Hallucinogens Nonprofessional Support Groups TRUTH or FICTION T❑ F❑ Heroin accounts for more deaths “Nothing and Nobody Comes Before than any other drug. (p. 291) T❑ F❑ You cannot be psychologically My Coke” dependent on a drug without also being She had just caught me with cocaine again after I had managed to convince her that physically dependent on it. (p. 295) I hadn’t used in over a month. Of course I had been tooting (snorting) almost every T❑ F❑ More teenagers and young adults die day, but I had managed to cover my tracks a little better than usual. So she said to from alcohol-related motor vehicle accidents me that I was going to have to make a choice—either cocaine or her. Before she than from any other cause. (p. 297) finished the sentence, I knew what was coming, so I told her to think carefully about what she was going to say. It was clear to me that there wasn’t a choice. I love my T❑ F❑ It is safe to let someone who has wife, but I’m not going to choose anything over cocaine. -
Comparison of the Inhibitory and Excitatory Effects of ADHD Medications Methylphenidate and Atomoxetine on Motor Cortex
Neuropsychopharmacology (2006) 31, 442–449 & 2006 Nature Publishing Group All rights reserved 0893-133X/06 $30.00 www.neuropsychopharmacology.org Comparison of the Inhibitory and Excitatory Effects of ADHD Medications Methylphenidate and Atomoxetine on Motor Cortex ,1 2 3 1 1 4 Donald L Gilbert* , Keith R Ridel , Floyd R Sallee , Jie Zhang , Tara D Lipps and Eric M Wassermann 1 2 Division of Neurology, Cincinnati Children’s Hospital Medical Center, University of Cincinnati, Cincinnati, OH, USA; University of Cincinnati 3 4 School of Medicine, Cincinnati, OH, USA; Division of Psychiatry, University of Cincinnati, Cincinnati, OH, USA; Brain Stimulation Unit, National Institute of Neurological Disorders and Stroke, Bethesda, MD, USA Stimulant and norepinephrine (NE) reuptake inhibitor medications have different effects at the neuronal level, but both reduce symptoms of attention deficit hyperactivity disorder (ADHD). To understand their common physiologic effects and thereby gain insight into the neurobiology of ADHD treatment, we compared the effects of the stimulant methylphenidate (MPH) and NE uptake inhibitor atomoxetine (ATX) on inhibitory and excitatory processes in human cortex. Nine healthy, right-handed adults were given a single, oral dose of 30 mg MPH and 60 mg ATX at visits separated by 1 week in a randomized, double-blind crossover trial. We used paired and single transcranial magnetic stimulation (TMS) of motor cortex to measure conditioned and unconditioned motor-evoked potential amplitudes at inhibitory (3 ms) and facilitatory (10 ms) interstimulus intervals (ISI) before and after drug administration. Data were analyzed with repeated measures, mixed model regression. We also analyzed our findings and the published literature with meta-analysis software to estimate treatment effects of stimulants and NE reuptake inhibitors on these TMS measures. -
Local Anesthetic Half Life (In Hours) Lidocaine 1.6 Mepivacaine 1.9 Bupivacaine 353.5 Prilocaine 1.6 Articaine 0.5
Local Anesthetics • The first local anesthetics History were cocaine and procaine (Novacain) developed in ltlate 1800’s • They were called “esters” because of their chemical composition • Esters had a slow onset and short half life so they did not last long History • Derivatives of esters called “amides” were developed in the 1930’s • Amides had a faster onset and a longer half life so they lasted longer • AidAmides quiklickly repldlaced esters • In dentistry today, esters are only found in topical anesthetics Generic Local Anesthetics • There are five amide anesthetics used in dentistry today. Their generic names are; – lidocaine – mepivocaine – bupivacaine – prilocaine – artica ine • Each is known by at least one brand name Brand Names • lidocaine : Xylocaine, Lignospan, Alphacaine, Octocaine • mepivocaine: Carbocaine, Arestocaine, Isocaine, Polocaine, Scandonest • prilocaine : Citanest, Citanest Forte • bibupivaca ine: MiMarcaine • articaine: Septocaine, Zorcaine About Local Anesthetic (LA) • Local anesthetic (LA) works by binding with sodium channels in neurons preventing depolarization • LA is inactivated at the injection site when it is absorbed into the blood stream and redistributed throughout the body • If enough LA is absorbed, sodium channels in other parts of the body will be blocked, causing systemic side effects About LA • A clinical effect of LAs is dilation blood vessels, speeding up absorption and distribution • To counteract this dilation so anesthesia is prolonged, , a vasoconstrictor is often added to LAs • However, vasoconstrictors have side effects also Metabolism and Excretion • Most amide LAs are metabolized (inactivated) by the liver and excreted by the kidneys. • Prilocaine is partially metabolized by the lungs • Articaine is partially metabolized by enzymes in the bloo d as well as the liver. -
Drug and Alcohol Abuse Prevention Handbook FOREWARD
Drug and Alcohol Abuse Prevention Handbook FOREWARD Grayson College recognizes that the illicit use of drugs and/or the abuse of alcohol are a persistent health problem of major proportion affecting our society physically, mentally, and socially. Illicit drug use and /or alcohol abuse can adversely affect an individual’s personal life, safety, health, and mental and physical performance. It is the intent of GC to provide employees and students pertinent information related to illicit drug use and/or alcohol abuse in an effort to prevent such harm. GC is committed to promoting and maintaining a work and academic environment that is free from illegal alcohol and drug use and abuse, in accordance with all federal, state, and local laws. Students, employees, and visitors are prohibited from possessing, consuming, manufacturing, dispensing, or being under the influence of alcohol/illegal drugs or engaging in improper self- medication while on college property or college business. Any member of the college community who violates this policy is subject to both prosecution and punishment under federal, state, and local laws to disciplinary proceedings by the college. This alcohol/drug policy is not designed to punish people for seeking rehabilitation. All information about those individuals who voluntarily avail themselves of drug or alcohol counseling or rehabilitation will not be used as a basis for disciplinary action or be used against an individual in any way. College employees and students who violate the alcohol/drug policy shall be informed about and referred to services to assist them in determining whether they are abusing drugs and alcohol or are chemically dependent. -
Hallucinogens and Dissociative Drugs
Long-Term Effects of Hallucinogens See page 5. from the director: Research Report Series Hallucinogens and dissociative drugs — which have street names like acid, angel dust, and vitamin K — distort the way a user perceives time, motion, colors, sounds, and self. These drugs can disrupt a person’s ability to think and communicate rationally, or even to recognize reality, sometimes resulting in bizarre or dangerous behavior. Hallucinogens such as LSD, psilocybin, peyote, DMT, and ayahuasca cause HALLUCINOGENS AND emotions to swing wildly and real-world sensations to appear unreal, sometimes frightening. Dissociative drugs like PCP, DISSOCIATIVE DRUGS ketamine, dextromethorphan, and Salvia divinorum may make a user feel out of Including LSD, Psilocybin, Peyote, DMT, Ayahuasca, control and disconnected from their body PCP, Ketamine, Dextromethorphan, and Salvia and environment. In addition to their short-term effects What Are on perception and mood, hallucinogenic Hallucinogens and drugs are associated with psychotic- like episodes that can occur long after Dissociative Drugs? a person has taken the drug, and dissociative drugs can cause respiratory allucinogens are a class of drugs that cause hallucinations—profound distortions depression, heart rate abnormalities, and in a person’s perceptions of reality. Hallucinogens can be found in some plants and a withdrawal syndrome. The good news is mushrooms (or their extracts) or can be man-made, and they are commonly divided that use of hallucinogenic and dissociative Hinto two broad categories: classic hallucinogens (such as LSD) and dissociative drugs (such drugs among U.S. high school students, as PCP). When under the influence of either type of drug, people often report rapid, intense in general, has remained relatively low in emotional swings and seeing images, hearing sounds, and feeling sensations that seem real recent years. -
Monitoring Anesthetic Depth
ANESTHETIC MONITORING Lyon Lee DVM PhD DACVA MONITORING ANESTHETIC DEPTH • The central nervous system is progressively depressed under general anesthesia. • Different stages of anesthesia will accompany different physiological reflexes and responses (see table below, Guedel’s signs and stages). Table 1. Guedel’s (1937) Signs and Stages of Anesthesia based on ‘Ether’ anesthesia in cats. Stages Description 1 Inducement, excitement, pupils constricted, voluntary struggling Obtunded reflexes, pupil diameters start to dilate, still excited, 2 involuntary struggling 3 Planes There are three planes- light, medium, and deep More decreased reflexes, pupils constricted, brisk palpebral reflex, Light corneal reflex, absence of swallowing reflex, lacrimation still present, no involuntary muscle movement. Ideal plane for most invasive procedures, pupils dilated, loss of pain, Medium loss of palpebral reflex, corneal reflexes present. Respiratory depression, severe muscle relaxation, bradycardia, no Deep (early overdose) reflexes (palpebral, corneal), pupils dilated Very deep anesthesia. Respiration ceases, cardiovascular function 4 depresses and death ensues immediately. • Due to arrival of newer inhalation anesthetics and concurrent use of injectable anesthetics and neuromuscular blockers the above classic signs do not fit well in most circumstances. • Modern concept has two stages simply dividing it into ‘awake’ and ‘unconscious’. • One should recognize and familiarize the reflexes with different physiologic signs to avoid any untoward side effects and complications • The system must be continuously monitored, and not neglected in favor of other signs of anesthesia. • Take all the information into account, not just one sign of anesthetic depth. • A major problem faced by all anesthetists is to avoid both ‘too light’ anesthesia with the risk of sudden violent movement and the dangerous ‘too deep’ anesthesia stage. -
Hallucinogens
Hallucinogens What Are Hallucinogens? Hallucinogens are a diverse group of drugs that alter a person’s awareness of their surroundings as well as their thoughts and feelings. They are commonly split into two categories: classic hallucinogens (such as LSD) and dissociative drugs (such as PCP). Both types of hallucinogens can cause hallucinations, or sensations and images that seem real though they are not. Additionally, dissociative drugs can cause users to feel out of control or disconnected from their body and environment. Some hallucinogens are extracted from plants or mushrooms, and others are synthetic (human-made). Historically, people have used hallucinogens for religious or healing rituals. More recently, people report using these drugs for social or recreational purposes. Hallucinogens are a Types of Hallucinogens diverse group of drugs Classic Hallucinogens that alter perception, LSD (D-lysergic acid diethylamide) is one of the most powerful mind- thoughts, and feelings. altering chemicals. It is a clear or white odorless material made from lysergic acid, which is found in a fungus that grows on rye and other Hallucinogens are split grains. into two categories: Psilocybin (4-phosphoryloxy-N,N-dimethyltryptamine) comes from certain classic hallucinogens and types of mushrooms found in tropical and subtropical regions of South dissociative drugs. America, Mexico, and the United States. Peyote (mescaline) is a small, spineless cactus with mescaline as its main People use hallucinogens ingredient. Peyote can also be synthetic. in a wide variety of ways DMT (N,N-dimethyltryptamine) is a powerful chemical found naturally in some Amazonian plants. People can also make DMT in a lab. -
Synthetic Cathinones ("Bath Salts")
Synthetic Cathinones ("Bath Salts") What are synthetic cathinones? Synthetic cathinones, more commonly known as "bath salts," are synthetic (human- made) drugs chemically related to cathinone, a stimulant found in the khat plant. Khat is a shrub grown in East Africa and southern Arabia, and people sometimes chew its leaves for their mild stimulant effects. Synthetic variants of cathinone can be much stronger than the natural product and, in some cases, very dangerous (Baumann, 2014). In Name Only Synthetic cathinone products Synthetic cathinones are marketed as cheap marketed as "bath salts" should substitutes for other stimulants such as not be confused with products methamphetamine and cocaine, and products such as Epsom salts that people sold as Molly (MDMA) often contain synthetic use during bathing. These cathinones instead (s ee "Synthetic Cathinones bathing products have no mind- and Molly" on page 3). altering ingredients. Synthetic cathinones usually take the form of a white or brown crystal-like powder and are sold in small plastic or foil packages labeled "not for human consumption." Also sometimes labeled as "plant food," "jewelry cleaner," or "phone screen cleaner," people can buy them online and in drug paraphernalia stores under a variety of brand names, which include: Flakka Bloom Cloud Nine Lunar Wave Vanilla Sky White Lightning Scarface Image courtesy of www.dea.gov/pr/multimedia- library/image-gallery/bath-salts/bath-salts04.jpg Synthetic Cathinones • January 2016 • Page 1 How do people use synthetic cathinones? People typically swallow, snort, smoke, or inject synthetic cathinones. How do synthetic cathinones affect the brain? Much is still unknown about how synthetic cathinones affect the human brain. -
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