Veterinary Toxicology Is a Very Broad- Based Discipline with Literally Thousands of Possible Toxicants
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2,4-Dichlorophenoxyacetic Acid
2,4-Dichlorophenoxyacetic acid 2,4-Dichlorophenoxyacetic acid IUPAC (2,4-dichlorophenoxy)acetic acid name 2,4-D Other hedonal names trinoxol Identifiers CAS [94-75-7] number SMILES OC(COC1=CC=C(Cl)C=C1Cl)=O ChemSpider 1441 ID Properties Molecular C H Cl O formula 8 6 2 3 Molar mass 221.04 g mol−1 Appearance white to yellow powder Melting point 140.5 °C (413.5 K) Boiling 160 °C (0.4 mm Hg) point Solubility in 900 mg/L (25 °C) water Related compounds Related 2,4,5-T, Dichlorprop compounds Except where noted otherwise, data are given for materials in their standard state (at 25 °C, 100 kPa) 2,4-Dichlorophenoxyacetic acid (2,4-D) is a common systemic herbicide used in the control of broadleaf weeds. It is the most widely used herbicide in the world, and the third most commonly used in North America.[1] 2,4-D is also an important synthetic auxin, often used in laboratories for plant research and as a supplement in plant cell culture media such as MS medium. History 2,4-D was developed during World War II by a British team at Rothamsted Experimental Station, under the leadership of Judah Hirsch Quastel, aiming to increase crop yields for a nation at war.[citation needed] When it was commercially released in 1946, it became the first successful selective herbicide and allowed for greatly enhanced weed control in wheat, maize (corn), rice, and similar cereal grass crop, because it only kills dicots, leaving behind monocots. Mechanism of herbicide action 2,4-D is a synthetic auxin, which is a class of plant growth regulators. -
The ABC of Drugs
LSD Joint Liquor Morphine Breath DrugTest 5000 Gin Lane Intoxication Witches Cheerful Purity Law Skin Evidential DRUID Sensor SpeedballAlcohol Ban Dependency Cocaine Emotions Sober Legalization BAC Roadside Checkpoint Opioids Drunk Ritalin Amphetamines Crack F.W. Sertürner Spice Profit Corn Schnapps EthanolInebriated Industrial Safety Sympathetic Nervous System Opium Sampling Unable to DriveUnable to War on Drugs War Blood Drugs Limits Prohibition MDMA Labrador Tea Catalyzer Poison Traffic Prevention Locoweed Reactions HeroinKhat Soul Pretest Bootlegger Rights Urine Shamans Injection IntoxicantRoad Deaths High-risk Professions Sober Alcohol Saliva Illegal Tube CultureAuthor Synthetic Wine Pervitin VodkaShisha Ecstasy PPT Paracelsus Beer Marijuana Electrochemical Alcotest Sweat Approval Drugs – ABCs Enzyme Ankle Bracelet Here is a brief, factual tour of commonly used drugs – their active ingredients as well as methods of use, risks, prevalence (frequency of use), origin, and history. © Drägerwerk AG & Co. KGaA 1 Drugs – ABCS Drugs – ABCS and sleep-in ducing purposes; their consumed cannabis at least once in Origins and history: the coca bush inter national non-proprietary names their lives. 6.8 percent of the same age has been cultivated in South America Drugs – ABCs often end in -azepam: Diazepam, group have consumed it within the for a good 5,000 years. Its leaves may Lorazepam and Oxazepam. Trade names past twelve months – or one out of three only have been used for ritual activities include Valium, Librium, Rohypnol, people have experimented with cannabis. initially. When impoverishment set in with Tavor, and Praxiten. Risks: restricted physical and mental the Spanish conquest, large sections Form of consumption: as tablets capacity, coupled with self-overestimation; of the population used the plant to stave or injected intraveneously. -
Veterinary Toxicology
GINTARAS DAUNORAS VETERINARY TOXICOLOGY Lecture notes and classes works Study kit for LUHS Veterinary Faculty Foreign Students LSMU LEIDYBOS NAMAI, KAUNAS 2012 Lietuvos sveikatos moksl ų universitetas Veterinarijos akademija Neužkre čiam ųjų lig ų katedra Gintaras Daunoras VETERINARIN Ė TOKSIKOLOGIJA Paskait ų konspektai ir praktikos darb ų aprašai Mokomoji knyga LSMU Veterinarijos fakulteto užsienio studentams LSMU LEIDYBOS NAMAI, KAUNAS 2012 UDK Dau Apsvarstyta: LSMU VA Veterinarijos fakulteto Neužkre čiam ųjų lig ų katedros pos ėdyje, 2012 m. rugs ėjo 20 d., protokolo Nr. 01 LSMU VA Veterinarijos fakulteto tarybos pos ėdyje, 2012 m. rugs ėjo 28 d., protokolo Nr. 08 Recenzavo: doc. dr. Alius Pockevi čius LSMU VA Užkre čiam ųjų lig ų katedra dr. Aidas Grigonis LSMU VA Neužkre čiam ųjų lig ų katedra CONTENTS Introduction ……………………………………………………………………………………… 7 SECTION I. Lecture notes ………………………………………………………………………. 8 1. GENERAL VETERINARY TOXICOLOGY ……….……………………………………….. 8 1.1. Veterinary toxicology aims and tasks ……………………………………………………... 8 1.2. EC and Lithuanian legal documents for hazardous substances and pollution ……………. 11 1.3. Classification of poisons ……………………………………………………………………. 12 1.4. Chemicals classification and labelling ……………………………………………………… 14 2. Toxicokinetics ………………………………………………………………………...………. 15 2.2. Migration of substances through biological membranes …………………………………… 15 2.3. ADME notion ………………………………………………………………………………. 15 2.4. Possibilities of poisons entering into an animal body and methods of absorption ……… 16 2.5. Poison distribution -
A POCKET GUIDE to Kansas Red Hills Wildflowers
A POCKET GUIDE TO Kansas Red Hills Wildflowers ■ ■ ■ ■ By Ken Brunson, Phyllis Scherich, Chris Berens, and Carl Jarboe Sponsored by Chickadee Checkoff, Westar Energy Green Team, The Nature Conservancy in Kansas, Kansas Grazing Lands Coalition and Comanche Pool Prairie Resource Foundation Published by the Friends of the Great Plains Nature Center Table of Contents • Introduction • 2 Blue/Purple ■ Oklahoma Phlox • 6 ■ Twist-flower • 7 ■ Blue Funnel-lily • 8 ■ Purple Poppy Mallow • 9 ■ Prairie Spiderwort • 10 ■ Purple Ground Cherry • 11 ■ Purple Locoweed • 12 ■ Stevens’ Nama • 13 ■ Woolly Locoweed • 14 Easter Daisy ■ Wedge-leaf Frog Fruit • 15 ©Phyllis Scherich ■ Silver-leaf Nightshade • 16 Cover Photo: Bush ■ Prairie Gentian • 17 Morning-glory ■ Woolly Verbena • 18 ©Phyllis Scherich ■ Stout Scorpion-weed • 19 Pink/Red ■ Rayless Gaillardia • 20 ■ Velvety Gaura • 21 ■ Western Indigo • 22 ■ Pincushion Cactus • 23 ■ Scarlet Gaura • 24 ■ Bush Morning-glory • 25 ■ Indian Blanket Flower • 26 ■ Clammy-weed • 27 ■ Goat’s Rue • 28 White/Cream Easter Daisy • 29 Old Plainsman • 30 White Aster • 31 Western Spotted Beebalm • 32 Lazy Daisy • 33 Prickly Poppy • 34 White Beardtongue • 35 Yucca • 36 White Flower Ipomopsis • 37 Stenosiphon • 38 White Milkwort • 39 Annual Eriogonum • 40 Devil’s Claw • 41 Ten-petal Mentzelia • 42 Yellow/Orange ■ Slender Fumewort • 43 ■ Bladderpod • 44 ■ Indian Blanket Stiffstem Flax • 45 Flower ■ Lemon Paintbrush • 46 ©Phyllis Scherich ■ Hartweg Evening Primrose • 47 ■ Prairie Coneflower • 48 ■ Rocky Mountain -
Effects of Metabolic Inhibitors on the Translocation of Auxins
EFFECTS OF METABOLIC INHIBITORS ON THE TRANSLOCATION OF AUXINS By DAMELIS DIAZ DE CEQUEA q Licenciado in Biology Universidad of Oriente Cumana, Venezuela 1976 Submitted to the Faculty of the Graduate College of the Oklahoma State University in partial fulfillment of the requirements for the Degree of MASTER OF SCIENCE May, 1986 -rkto~~~ I 1:{ (; 0 5'/Je Cop " EFFECTS OF METABOLIC INHIBITORS ON THE TRANSLOCATION OF AUXINS Thesis Approved: 1251232 ~ ii ACKNOWLEDGMENTS I wish to express my most sincere gratitude to Dr. Eddie Basler for his guidance, time and training during the course of this research. I wish to thank Dr. Glenn W. Todd and Dr. Becky Johnson for being members of my graduate committee. I also want to thank Jean Pittman Winters, Trina Wheless, and Roberto Machado for their valuable help received during experiment preparations, and Bobby Winters for his time dedicated to preparing some of the computer programs. Special acknowledgement is due to my husband Hernan, my son Hernan Alejandro, and my family for their constant love and support during my graduate career, without them I would not have been able to achieve this goal. I want to express my gratitude to Dr. John Vitek, Assistant Dean of the Graduate Collage, and Dr. Glenn Todd, Botany Department Head, for giving me the opportunity to study in this University. Finally, I want to recognize the financial support received from Universidad de Oriente Cumana, Venezuela during my time in the U.S.A. iii TABLE OF CONTENTS Chapter Page I. INTRODUCTION. • . • • . • 1 II. MATERIALS AND METHODS....................................... 8 III. RESULTS ..•....•.................................•..........• 11 Comparison of the Effect of DCCD and1RIDS on the Tray~location of 2,4,5-T-1- C and IAA -1- C. -
Street Drugs Exposed
Harold L. Crossley, DDS., M.S., Ph.D. [email protected] STREET DRUGS EXPOSED: WHAT YOUR KIDS AND YOUR PATIENTS DON’T TELL YOU! Hosted by College of Diplomates American Board of Endodontics Summer Conference 2018 Washington DC August 3, 2018 ********************** Statement on Provision of Dental Treatment for Patients with Substance Abuse Disorders ***************** Guidelines Related to Alcohol, Nicotine, and/or Drug Use by Child or Adolescent Patients ****************** Statement on Alcohol and Other Substance Use by Pregnant and Postpartum Patients ****************** www.ada.org About the ADA ADA Positions, Policies and Statements Substance Use Disorders (6) I. General Information A. Useful Websites for drug information www.drugfree.org www.dea.gov www.drugabuse.gov www.nida.nih.gov www.streetdrugs.org www.drugs.com B. Chemical Dependency (Alcoholism as an example) is a Primary, Chronic, Progressive, Relapsing Disease process with Genetic, Psychosocial, and Environmental factors influencing its development and manifestations. C. progressive nature of addiction - experimental social use abuse addiction - “gateway drugs”-nicotine and alcohol - 1 - Harold L. Crossley, DDS., M.S., Ph.D. [email protected] II. Age-Related Trends A. Possible oral manifestations of substance abuse 1. nicotine stomatitis 2. absence of stains on lingual of lower anteriors 3. spots or sores around mouth 4. burns on lips 5. leukoplakia 6. “meth mouth” 7. unexplained periodontitis 8. unusual amount and location of caries 9. xerostomia B. Inhalants 1. Inhalants-Volatile Solvents a. Fifth most abused drug after alcohol, marijuana, nicotine and prescription drugs b. Inhalant abuse peaks in 8th grade c. Used by “huffing", “sniffing”, “bagging” d. Causes of death-inhalants - suffocation - respiratory depression - liver failure - sudden sniffing death 2. -
Solutions to Locoweed Poisoning in New Mexico and the Western
Solutions to Locoweed Poisoning in New Mexico and the Western United States: Collaborative research between New Mexico State University and the USDA– Agricultural Research Service Poisonous Plant Lab Item Type text; Article Authors Graham, David; Creamer, Rebecca; Cook, Daniel; Stegelmeier, Bryan; Welch, Kevin; Pfister, Jim; Panter, Kip; Cibils, Andres; Ralphs, Michael; Encinias, Manny; McDaniel, Kirk; Thompson, David; Gardner, Kevin Citation Graham, D., Creamer, R., Cook, D., Stegelmeier, B., Welch, K., Pfister, J. … & Gardner, K. (2009). Solutions to Locoweed Poisoning in New Mexico and the Western United States: Collaborative research between New Mexico State University and the USDA–Agricultural Research Service Poisonous Plant Lab. Rangelands, 31(6), 3-8. DOI 10.2111/1551-501X-31.6.3 Publisher Society for Range Management Journal Rangelands Rights Copyright © Society for Range Management. Download date 26/09/2021 15:03:18 Item License http://rightsstatements.org/vocab/InC/1.0/ Version Final published version Link to Item http://hdl.handle.net/10150/640694 Society for Range Management Solutions to Locoweed Poisoning in New Mexico and the Western United States Collaborative research between New Mexico State University and the USDA–Agricultural Research Service Poisonous Plant Lab By David Graham, Rebecca Creamer, Daniel Cook, Bryan Stegelmeier, Kevin Welch, Jim Pfi ster, Kip Panter, Andres Cibils, Michael Ralphs, Manny Encinias, Kirk McDaniel, David Thompson, and Kevin Gardner Introduction from producers, D. Graham, unpublished data, 2004). By D. Graham Much of this reduction can be attributed to the “technology ocoweed is the most widespread poisonous plant transfer” to producers from the ongoing collaborative problem in the western United States. -
Landscaping Near Black Walnut Trees
Selecting juglone-tolerant plants Landscaping Near Black Walnut Trees Black walnut trees (Juglans nigra) can be very attractive in the home landscape when grown as shade trees, reaching a potential height of 100 feet. The walnuts they produce are a food source for squirrels, other wildlife and people as well. However, whether a black walnut tree already exists on your property or you are considering planting one, be aware that black walnuts produce juglone. This is a natural but toxic chemical they produce to reduce competition for resources from other plants. This natural self-defense mechanism can be harmful to nearby plants causing “walnut wilt.” Having a walnut tree in your landscape, however, certainly does not mean the landscape will be barren. Not all plants are sensitive to juglone. Many trees, vines, shrubs, ground covers, annuals and perennials will grow and even thrive in close proximity to a walnut tree. Production and Effect of Juglone Toxicity Juglone, which occurs in all parts of the black walnut tree, can affect other plants by several means: Stems Through root contact Leaves Through leakage or decay in the soil Through falling and decaying leaves When rain leaches and drips juglone from leaves Nuts and hulls and branches onto plants below. Juglone is most concentrated in the buds, nut hulls and All parts of the black walnut tree produce roots and, to a lesser degree, in leaves and stems. Plants toxic juglone to varying degrees. located beneath the canopy of walnut trees are most at risk. In general, the toxic zone around a mature walnut tree is within 50 to 60 feet of the trunk, but can extend to 80 feet. -
From the Ground Up
Spring 2015 Volume 6, Issue 1 From the Ground Up A Gardening and Native Plants Quarterly Colorado State University Extension-Pueblo County 701 Court Street · Suite C · Pueblo, CO 81003 · 719-583-6566 · [email protected] FABULOUS FAMILIES FERNS by Ed Roland, Native Plant Master, 2009 Most ferns inhabit cool, moist canyons in this part of Colorado, but their habitats range from arid deserts to north of the Arctic Circle. They can be found as epiphytes ("air plants" without a true root system) in the canopy of a tropical rain forest, or as tiny water-borne species in salt-water lagoons. Tree ferns, reaching over 80 feet into the air with 15-foot fronds, grow into dense thickets in many tropical habitats. With fossils dating back to the Devonian (c. 400 MYA), ferns are viewed by paleobotanists as critical pioneer species in the development of our modern ecologies. For example, the fossil record shows that ferns dominated for millions of years after an estimated 6-mile diameter asteroid impacted the earth (at the end of the Cretaceous about 65 million years ago), making it impossible for most seed-bearing plants to survive. Long before that, ferns were so prevalent that they are the primary components of our coal deposits. While some species of ferns in lower elevations take on a morphology more akin to a grass or clover, what I'm describing here are the "true ferns" we're more likely to encounter in our higher elevation mountain drainages. These ferns have the compound leaves we call "fronds." Fronds are typically dissected into "pinnae" and, if bi-pinnately compound, then "pinnules." (See Photo A.) With an estimated 12,000 plus species world-wide, the vast majority of which are true ferns in the phylum (or, for botanists, "division") Filicinophyta, ferns are by far the most diverse of the Photo A: Section of a bi-pinnately compound Male seedless plants. -
Black Walnut Toxicity
General Horticulture • HO-193-W Department of Horticulture Purdue University Cooperative Extension Service • West Lafayette, IN BLACK WALNUT TOXICITY Michael N. Dana and B. Rosie Lerner Black walnut (Juglans nigra L.) is a valuable hardwood to be a respiration inhibitor which deprives sensitive lumber tree and Indiana native. In the home landscape, plants of needed energy for metabolic activity. black walnut is grown as a shade tree and, occasionally, for its edible nuts. While many plants grow well in The largest concentrations of juglone and hydrojuglone proximity to black walnut, there are certain plant species (converted to juglone by sensitive plants) occur in the whose growth is hindered by this tree. The type of walnut’s buds, nut hulls, and roots. However, leaves and relationship between plants in which one produces a stems do contain a smaller quantity. Juglone is only substance which affects the growth of another is know poorly soluble in water and thus does not move very far as “allelopathy.” in the soil. Awareness of black walnut toxicity dates back at least to Since small amounts of juglone are released by live Roman times, when Pliny noted a poisoning effect of roots, particularly juglone-sensitive plants may show walnut trees on “all” plants. More recent research has toxicity symptoms anywhere within the area of root determined the specific chemical involved and its mode growth of a black walnut tree. However, greater quanti of action. Many plants have been classified through ties of juglone are generally present in the area immedi observation as either sensitive or tolerant to black ately under the canopy of a black walnut tree, due to walnuts. -
ACVPM Toxicology Review
Top 20 Toxicology Review “I always keep a supply of stimulant handy in case I see a snake………..which I also keep handy. “ - WC Fields The Top 10 (in no particular order….) 1. Bracken fern Pteridium aquilinum –THINK bloody urine cows, ataxic horse 2. Copper –THINK hemolytic crisis, port wine urine, gunmetal kidneys 3. Cyanide—THINK Bright red blood, like bright red cherries 4. Anticoagulant rodenticides--–THINK hemolytic crisis 5. Ethylene glycol (antifreeze) –THINK kidney failure 6. Insecticides (esp. OPPs, carbamates) –THINK miosis, drool, vomiting, diarrhea, seizure 7. Lead--–THINK GI signs + Neuro Sx (blindness) 8. NITRATE / NITRITE Toxicity –THINK Dark Chocolate blood 9. Mycotoxins Aflatoxins –THINK hepatotoxic, carcinogenic Zearalonone / moldy corn –THINK estrogenism, repro dysfunction 10. Nonprotein nitrogen (NPN) ‘Ammonia tox‘ (urea, ammonia, etc) –THINK Bov Bonkers 1 www.zukureview.com © Zuku LLC, All Rights Reserved I. Pathognomonics, weird names, weird smells, NOEL 1. Gunmetal grey kidneys-Cu tox Trifolium subterraneum, cz mineral imbal Senecio, Heliotropum damage liver cz Cu tetention 2. Port wine urine-Cu tox see above 3. Cherry-red blood-Cyanide pitted fruits 4. Chocolate-brown blood- Nitrates 5. “SPECTACLES” Depigmentation around eyes- molybdenul tox 6. Smells a. Garlicky breath- selenium tox b. Bitter almonds in rumen-cyanide c. “Mouse-like odor” to crushed leaves- Conium maculatum (poison hemlock) 7. Diseases a. “Alkali disease”- selenium toxicity (Astragalus, Oxytropis) b. “Blind staggers”-selenium tox c. “Cracker heels” clicking dewclaws w/ Astragalus-miserotoxin d. “Milk sickness” in early American settlers- Eupatorium (white snakeroot) e. “Crooked calf” syndrome- torticollis, carpal flexure, scoliosis in calves exposed in utero d. 40-70 to Lupinus (Lupine, bluebonnet) f. -
Locoweed Population Cycles Outbreaks Occur in Wet Years and Die-Off in Drought
14 RANGELANDS 25 (5) 25th Anniversary Locoweed Population Cycles Outbreaks occur in wet years and die-off in drought. Michael H. Ralphs, James A. Pfister, Stan L. Welsh, J. David Graham, Jarred Purvines, Donald T. Jensen, and Lynn F. James Locoweed poisoning is the most wide spread poi- tion. It becomes a large robust plant and retains its sonous plant problem on western rangelands. succulence in this desert region, which enhances its Species of Astragalus and Oxytropis occur in every palatability and likelihood to cause poisoning. major plant community. However, livestock poison- Emory milkvetch is a winter annual throughout ing is erratic, due to the cyclic nature of the lo- much of the Rio Grande Valley of Texas and south- coweed populations. ern half of New Mexico. It contains both the lo- Locoweeds have different survival strategies which coweed toxin, swainsonine, and nitro toxins. In dry allows perpetuation of the species through long-term years, plants are small and scattered. When precipi- climatic cycles and short-term weather conditions. tation is timely and abundant, seeds germinate and Climate controls the establishment and growth of plants grow profusely, often forming a veritable these plants by the amount and timing of precipita- carpet on large areas of rangeland. Abundant pre- tion. There are three main survival strategies: cipitation fell in autumn 1974 causing unusually 1) Annual plants avoid drought by seed-dormancy high rates of germination. There was adequate win- through dry cycles, and germinate in years when ter and spring moisture to continue growth, and sufficient moisture is available. densities were high throughout the region surround- 2) Biennial or short-lived perennial plants rely on ing Roswell, N.M.