Source STRYCHNINE IS MADE FROM THE BERRIES OF THE PLANT STRYCHNOS NUX VOMICA. THE PLANT IS FOUND IN SOUTHERN ASIA. STRYCHNINE BERRIES ARE FLESHY AND ORANGE.

Slides:



Advertisements
Similar presentations
Cardiovascular Diseases
Advertisements

Controlled Drugs & Illegal Drug Use
SEPSIS KILLS program Paediatric Inpatients
Arterial Blood Gas Analysis
Principles of Decontamination. Objectives Define contamination and decontamination Differentiate between the concepts of exposure and contamination Identify.
Paraquat Toxicity and Treatment
Treatment for Poisonings
General Pharmacology Chapter 10. General Pharmacology You will be responsible for administering certain drugs. You will be responsible for assisting patients.
Treatment for Poisonings
Acid-base disorders  Acid-base disorders are divided into two broad categories:  Those that affect respiration and cause changes in CO 2 concentration.
Maine Emergency Medical Services Department of Public Safety Maine Heartsafe Communities Welcome.
What You Will Do Identify changeable risk factors that can lead to diseases of the heart and lungs. Explain diseases that can result from certain lifestyles.
The Excretory System
EXCRETORY SYSTEM By: Chayla, Chloe, Meagan, and Rhys.
Chemistry, Solutions, and Acid/Base Balance.
Do Now Blood Cell Lab ½ period
Acid Base Sophie & Mimi Any questions –
COMMON LIFESTYLE DISEASES
SCIENCE PROJECT …. The benefits we can use it in packaging, electrical, industrial, transportation, aerospace and weapons, food, chemical, petroleum.
NEW MEXICO DEPARTMENT OF TRANSPORTATION
BLOOD GAS ANALYSIS REVISION SHARON HARVEY 5/10/04.
Human Body Systems and Functions
Drugs (illegal, prescription, &otc), Alcohol, and Tobacco Lesson 36, 37,38 and 39.
Arterial blood gas By Maha Subih.
Cardiovascular Diseases Why should you establish and maintain healthful habits to care for your heart?
Case 6 A 54 year old obese person come in emergency with altered consciousness level and increase respiratory rate (tachypnia) for last 4 hours. He is.
8 th Grade Illegal Drugs Stimulants, Depressants, and Narcotics.
Diabetic Ketoacidosis DKA)
General Pharmacology.
Shock Part 3: Chapter 9.
Shock.
Acid-Base Imbalance NRS What is pH? pH is the concentration of hydrogen (H+) ions The pH of blood indicates the net result of normal acid-base.
Emergency Therapy for. MH Hotline MH-HYPER ( ) Outside the US:
Medicine and Illegal Drugs
First Aid for Shock By: Shayla Z. Matt S. Sara K. Allen M.
Body Systems Why do we need them? What do they do?
Human Body Systems and Functions
Acid-Base Balance KNH 413. Acid-Base Balance Acids- rise in pH Donate or give up H+ ions Nonvolatile acids or fixed acids Inorganic acids that occur through.
© 1999 Lockheed Martin Energy Research Corporation CA128 NERVE AGENT EXPOSURE.
Chapter 6. Toxicologist Detect and identify drugs and poisons in the body fluids, tissues, and organs and determine their influence on human behavior.
Sarin Serene Selli & Hannah Pritchard 7 th Period.
Medicine and Illegal Drugs
Limmer et al., Emergency Care Update, 10th Edition © 2007 by Pearson Education, Inc. Upper Saddle River, NJ CHAPTER 21 Poisoning and Overdose Emergencies.
Fluid and Electrolyte Imbalance
Forensic Science: Fundamentals & Investigations, Chapter 9 1 Chapter 9 Drug Identification and Toxicology By the end of this chapter you will be able to:
7.3 Drugs and Consciousness Psychoactive Drugs: chemicals that affect the nervous system and result in altered consciousness.
Define and describe the goals and practice of toxicology
Health Mrs. Wagner.  1. Depressant – decreases CNS – Alcohol  2. Hallucinogens – Distorts reality – LSD, Ecstasy, PCP  3. Inhalants – Take in fumes.
Drugs and Our Society How Drugs Work in the Body and the Mind.
THE HUMAN BODY Mr. Pope.
Lifestyle Diseases Heart Attack, Stroke & Diabetes Mrs. Lashmet Health.
By: Raven Shelton & Stephanie Swanson. What is Dehydration? Occurs when the body has lost too much fluid and electrolytes Most common in elderly.
By: Emilie Gardam. Question 1 The main pollutants and contaminants that can affect human health are carbon dioxide and pesticides. Carbon dioxide comes.
Acid Base Balance B260 Fundamentals of Nursing. What is pH? pH is the concentration of hydrogen (H+) ions The pH of blood indicates the net result of.
Jennifer L. Doherty, MS, LAT, ATC Management of Medical Emergencies
Acid-Base Imbalance.
Acid-Base Imbalance.
Prescription Drugs.
Acid-Base Imbalance.
Acid-Base Imbalance.
Medicine and Illegal Drugs
NERVE AGENT EXPOSURE CA128.
Psychoactive Drugs.
First Aid.
Chapter 4 Cough or difficult breathing Case I
Treatment for Poisonings
Presentation transcript:

Source STRYCHNINE IS MADE FROM THE BERRIES OF THE PLANT STRYCHNOS NUX VOMICA. THE PLANT IS FOUND IN SOUTHERN ASIA. STRYCHNINE BERRIES ARE FLESHY AND ORANGE OR YELLOW AND ARE ONE AND A HALF INCH IN DIAMETER.

What is it and how can you take it? white, odorless, bitter crystalline powder can be taken by mouth, inhaled (breathed in), or mixed in a solution and given intravenously (injected directly into a vein) strong poison; only a small amount is needed to produce severe effects in people.

Past and Present In the past, strychnine was available in a pill form and was used to treat many human ailments. Today, strychnine is used primarily as a pesticide, particularly to kill rats. Uncommonly, strychnine is found mixed with “street” drugs such as LSD, heroin, and cocaine.

Exposure FOLLOWING RELEASE OF STRYCHNINE INTO WATER, YOU COULD BE EXPOSED BY DRINKING CONTAMINATED WATER. FOLLOWING CONTAMINATION OF FOOD WITH STRYCHNINE, YOU COULD BE EXPOSED BY EATING THE CONTAMINATED FOOD. IT IS ALSO POSSIBLE TO ABSORB STRYCHNINE THROUGH THE MEMBRANES IN THE NOSE, EYES, OR MOUTH. FOR EXAMPLE, A PERSON COULD BE POISONED BY INHALING STRYCHNINE POWDER THAT HAS BEEN RELEASED IN THE AIR. STRYCHNINE COULD BE SMOKED OR SNORTED AS A COMPONENT OF STREET DRUGS. POISONING HAS BEEN REPORTED FROM STRYCHNINE GIVEN INTRAVENOUSLY AND THROUGH THE NOSE.

How it works… STRYCHNINE PREVENTS THE PROPER OPERATION OF THE CHEMICAL THAT CONTROLS NERVE SIGNALS TO THE MUSCLES. THE CHEMICAL CONTROLLING NERVE SIGNALS WORKS LIKE THE BODY’S “OFF SWITCH” FOR MUSCLES. WHEN THIS “OFF SWITCH” DOES NOT WORK CORRECTLY, MUSCLES THROUGHOUT THE BODY HAVE SEVERE, PAINFUL SPASMS. EVEN THOUGH THE PERSON’S CONSCIOUSNESS OR THINKING ARE NOT AFFECTED AT FIRST (EXCEPT THAT THE PERSON IS VERY EXCITABLE AND IN PAIN), EVENTUALLY THE MUSCLES TIRE AND THE PERSON CAN’T BREATHE.

PEOPLE EXPOSED TO LOW OR MODERATE DOSES OF STRYCHNINE BY ANY ROUTE WILL HAVE THE FOLLOWING SIGNS OR SYMPTOMS: AGITATION APPREHENSION OR FEAR ABILITY TO BE EASILY STARTLED RESTLESSNESS PAINFUL MUSCLE SPASMS POSSIBLY LEADING TO FEVER AND TO KIDNEY AND LIVER INJURY UNCONTROLLABLE ARCHING OF THE NECK AND BACK RIGID ARMS AND LEGS JAW TIGHTNESS MUSCLE PAIN AND SORENESS DIFFICULTY BREATHING DARK URINE INITIAL CONSCIOUSNESS AND AWARENESS OF SYMPTOMS

PEOPLE EXPOSED TO HIGH DOSES OF STRYCHNINE MAY HAVE THE FOLLOWING SIGNS AND SYMPTOMS WITHIN THE FIRST 15 TO 30 MINUTES OF EXPOSURE: RESPIRATORY FAILURE (INABILITY TO BREATHE), POSSIBLY LEADING TO DEATH BRAIN DEATH

long term effects IF THE PERSON SURVIVES THE TOXIC EFFECTS OF STRYCHNINE POISONING, LONG-TERM HEALTH EFFECTS ARE UNLIKELY. HOWEVER, LONG-TERM EFFECTS MAY RESULT FROM DAMAGE CAUSED BY THE POISONING (FOR EXAMPLE, BRAIN DAMAGE FROM LOW OXYGEN, KIDNEY FAILURE). PEOPLE SEVERELY AFFECTED BY STRYCHNINE POISONING ARE NOT LIKELY TO SURVIVE.

long term effects IF THE PERSON SURVIVES THE TOXIC EFFECTS OF STRYCHNINE POISONING, LONG-TERM HEALTH EFFECTS ARE UNLIKELY. HOWEVER, LONG-TERM EFFECTS MAY RESULT FROM DAMAGE CAUSED BY THE POISONING (FOR EXAMPLE, BRAIN DAMAGE FROM LOW OXYGEN, KIDNEY FAILURE). PEOPLE SEVERELY AFFECTED BY STRYCHNINE POISONING ARE NOT LIKELY TO SURVIVE.

ne/basics/facts.asp

CASE STUDY A 42-year-old man with no significant past medical history presented approximately 1 hour after ingestion of a bottle of wine together with some "white powder" from his garden shed (this was later confirmed to be strychnine). He was able to walk in to the Emergency Department, but he was agitated and ataxic, in keeping with his ethanol intake. Within a few minutes of his arrival, his condition rapidly deteriorated and he developed a marked tremor and muscular spasms and shortly after this had a respiratory and secondary cardiac arrest. At this stage he was intubated and ventilated, and cardiac output returned after 5 minutes. He was transferred to the intensive care unit (ICU) and the National Poisons Information Service (London) was contacted for further advice on management. He continued to have marked muscle spasms and so was paralysed with 0.1 mg/kg pancuronium given intravenously. He was given 50 g activated charcoal via a nasogastric tube. Postarrest, his blood pressure was 85/40 mmHg, heart rate 96 beats/min and temperature 38.2°C. Arterial blood gases showed a severe metabolic acidosis (pH6.51, PaO kPa, PaCO kPa, HCO mmol/l, base excess [BE] -18) and he was given 3 mmol/kg 8.4% sodium bicarbonate; his metabolic acidosis improved over the next 8 hours (pH7.26, PaCO kPa, PaO kPa, HCO 3 18 mmol/l, BE -9). He remained hypotensive despite fluid resuscitation and over the first 24 hours he required norepinephrine to maintain his blood pressure (maximum dose 900 g/h). His temperature rose to 39.9°C on day2 but settled after simple cooling measures and rehydration. His creatinine kinase peaked at 8218 IU/l, (although there was no evidence of myoglobinuria) and his creatinine peaked at 194 mol/l on day 2. He was extubated on day3, initially with some persisting twitching and muscular spasms, requiring boluses of midazolam and diazepam and an alfentanil infusion for analgesia. By day5 he was asymptomatic and his renal function had returned to normal. He was discharged from hospital on day10 after psychiatric assessment.