Desomorphine

Desomorphine
Clinical data
Trade names Permonid
Dependence
liability
Physical: Very high
Psychological: Very high
Addiction
liability
Very high
ATC code none
Legal status
Legal status
Identifiers
Synonyms Desomorphine, dihydrodesoxymorphine, Permonid
CAS Number 427-00-9 N
PubChem (CID) 5362456
ChemSpider 4515044 YesY
UNII 7OP86J5E33 YesY
ChEMBL CHEMBL2106274 N
Chemical and physical data
Formula C17H21NO2
Molar mass 271.354 g/mol
3D model (Jmol) Interactive image
 NYesY (what is this?)  (verify)

Desomorphine (dihydrodesoxymorphine, former brand name Permonid, street name krokodil) is a derivative of morphine with powerful, fast-acting opioid effects, such as sedation and analgesia.[1][2][3][4] First synthesized in 1932 and patented in 1934,[5] desomorphine was used in Switzerland under the brand name Permonid[6] and was described as having a fast onset and a short duration of action, with relatively little nausea or respiratory depression compared to equivalent doses of morphine. Dose-by-dose it is eight to ten times more potent than morphine.[7]

Desomorphine is derived from morphine where the 6-hydroxyl group and the 7,8 double bond have been reduced.[5] The traditional synthesis of desomorphine starts from α-chlorocodide, which is itself obtained by reacting thionyl chloride with codeine. By catalytic reduction, α-chlorocodide gives dihydrodesoxycodeine, which yields desomorphine on demethylation.[8][9]

Uses

Medical

Desomorphine was previously used in Switzerland and Russia for the treatment of severe pain; although for many years up to 1981, when its use was terminated, it was being used to treat a single person in Bern, Switzerland with a rare illness.[10]

Recreational

Desomorphine abuse in Russia attracted international attention in 2010 due to an increase in clandestine production, presumably due to its relatively simple synthesis from codeine available over-the-counter. Abuse of homemade desomorphine was first reported in Siberia in 2003 when Russia started a major crackdown on heroin production and trafficking, but has since spread throughout Russia and the neighboring former Soviet republics.[10]

The drug can be made from codeine and iodine derived from over-the-counter medications and red phosphorus from match strikers,[11] in a process similar to the manufacturing of methamphetamine from pseudoephedrine. Like methamphetamine, desomorphine made this way is often contaminated with various agents. The street name in Russia for homemade desomorphine is krokodil (Russian: крокодил, crocodile), possibly related to the chemical name of the precursor α-chlorocodide, or similarity of a skin, damaged by the drug use, to crocodile leather.[10] Due to difficulties in procuring heroin, combined with easy and cheap access to over-the-counter pharmacy products containing codeine in Russia, use of krokodil increased until 2012.[12] In 2012 the Russian federal government introduced new restrictions for the sale of codeine-containing medications. This policy change likely diminished, but did not extinguish krokodil use in Russia.[13] It has been estimated that around 100,000 people use krokodil in Russia and around 20,000 in Ukraine.[12] One death in Poland in December 2011 was also believed to have been caused by krokodil use, and its use has been confirmed among Russian expatriate communities in a number of other European countries.[14]

Adverse effects

Toxicity

Illicitly produced desomorphine typically contains large amounts of toxic substances as a result of being "cooked" and used without any significant effort to remove the byproducts and leftovers from synthesis. Injecting any such mixture can cause serious damage to the skin, blood vessels, bone and muscles, sometimes requiring limb amputation in long-term users.[7] Causes of this damage are from iodine and phosphorus (and other toxic substances) that are present after synthesis. The large volume of tissue damage/infection is what gained the drug its nickname of the flesh-eating drug, as homemade versions made by suppliers and users contain multiple impurities and toxic substances that lead to such tissue damage/infection (the pure form of the drug itself would not cause this damage).[15] Gangrene, phlebitis, thrombosis (blood clots), pneumonia, meningitis, septicaemia (blood infection), osteomyelitis (bone infection), liver & kidney damage, brain damage and HIV/AIDS are also common amongst users of krokodil.[12] Sometimes, the user will miss the vein when injecting the desomorphine, creating an abscess and causing death of the flesh surrounding the entry-point.[7] Test subjects were subjected to desomorphine intake. The completed tests on animal subjects produced results that contrast desomorphine to morphine. Compared to morphine, the results show increased toxicity, more potent relief of pain, higher levels of general depression, decreased respiration, and increased digestive activity.[16]

Reinforcement disorders

Early medical trials of humans taking desomorphine have resulted in the finding that, like morphine and most other analgesics of the morphine type, small amounts are highly addictive and tolerance to the drug develops quickly. However, though tolerance to respiratory depression with repeated doses was observed in rats, early clinical trials failed to show any tolerance to these same effects with repeated doses in humans.[16]

Chemistry

Desomorphine has a molecular weight of 271.35 g/mol and three salts are used: hydrobromide (free-base conversion ratio 0.770), hydrochloride (0.881) and sulfuric acid(0.802).[17] Its freebase form is slightly soluble in water (1.425 g/L at 25 °C), although its salts are very water-soluble; its freebase form is also very soluble in most polar organic solvents (like acetone, ethanol and ethyl acetate).[7] Its melting point is 189 °C.[7] It has a pKa of 9.69.[7] Desomorphine comes in four isoforms, A, B, C, and D[18] and the latter two appear to be the more researched and used.

Krokodil is made from codeine mixed with other substances. The codeine is retrieved from over-the-counter medicine and is then mixed with ethanol, gasoline, red phosphorus, iodine, hydrochloric acid and paint thinner.[7] Toxic nitrogen oxide fumes emerge from the drug when heated.[19]

History

Desomorphine was first synthesised in the U.S. in 1932 and patented on November 13, 1934.[10] In Russia, desomorphine was declared an illegal narcotic analgesic in 1998. However, while codeine-containing drugs generally have been prescription products in Europe, in Russia they were sold freely over-the-counter until June 2012.[20] The number of users in Russia was estimated to have reached around one million at the peak of the drug's popularity.[21]

Society and culture

In the US, desomorphine is a Schedule 1 controlled substance, indicating that the United States FDA has determined that there are no legal medicinal uses for desomorphine in the U.S. It has maintained this status as a controlled substance in the United States since 1936.[16] The drug is a Narcotic in Schedule I of the Controlled Substances Act 1970 of the United States as drug number (ACSCN) 9055. It is therefore subject to annual aggregate manufacturing quotas in the United States, and in 2014 the quota for desomorphine was 5 grams.[22] It is produced as a hydrochloride (free base conversion ratio 0.85) and sulphate (0.80)[23]

Western media

The media in the U.S. and Canada have brought awareness to desomorphine. There have been incidents reported where desomorphine had supposedly been present within either country but no incidents have been confirmed by any drug-testing reports.[24][25]

References

  1. Casy, Alan F.; Parfitt, Robert T. (1986). Opioid analgesics: chemistry and receptors. New York: Plenum Press. p. 32. ISBN 978-0-306-42130-3.
  2. Bognar, R; Makleit, S (1958). "Neue Methode für die Vorbereitung von dihydro-6-desoxymorphine" [New method for the preparation of dihydro-6-desoxymorphine]. Arzneimittel-Forschung (in German). 8 (6): 323–5. PMID 13546093.
  3. Janssen, Paul A. J. (1962). "A Review of the Chemical Features Associated with Strong Morphine-Like Activity". British Journal of Anaesthesia. 34 (4): 260–8. doi:10.1093/bja/34.4.260. PMID 14451235.
  4. Sargent, Lewis J.; May, Everette L. (1970). "Agonists-antagonists derived from desomorphine and metopon". Journal of Medicinal Chemistry. 13 (6): 1061–3. doi:10.1021/jm00300a009. PMID 4098039.
  5. 1 2 US patent 1980972, Lyndon Frederick Small, "Morphine Derivative and Processes", published 1934-19-07, issued 1934-13-11
  6. "Krokodil". New York State Office of Alcoholism and Substance Abuse Services.
  7. 1 2 3 4 5 6 7 Katselou, M; Papoutsis, I; Nikolaou, P; Spiliopoulou, C; Athanaselis, S (May 2014). "A "Krokodil" emerges from the murky waters of addiction. Abuse trends of an old drug.". Life Sciences. 102 (2): 81–87. doi:10.1016/j.lfs.2014.03.008. PMID 24650492.
  8. Mosettig, Erich; Cohen, Frank L.; Small, Lyndon F. (1932). "Desoxycodeine Studies. III. The Constitution of the So-Called α-Dihydrodesoxycodeine: Bis-Dihydrodesoxycodeine". Journal of the American Chemical Society. 54 (2): 793–801. doi:10.1021/ja01341a051.
  9. Eddy, Nathan B.; Howes, Homer A. (1935). "Studies of Morphine, Codeine and their Derivatives X. Desoxymorphine-C, Desoxycodeine-C and their Hydrogenated Derivatives". Journal of Pharmacology and Experimental Therapeutics. 55 (3): 257–67.
  10. 1 2 3 4 Gahr, M; Freudenmann, RW; Hiemke, C; Gunst, IM; Connemann, BJ; Schönfeldt-Lecuona, C (2012). "Desomorphine goes "crocodile".". Journal of Addictive Diseases. 31 (4): 407–12. doi:10.1080/10550887.2012.735570. PMID 23244560.
  11. Savchuk, S. A.; Barsegyan, S. S.; Barsegyan, I. B.; Kolesov, G. M. (2011). "Chromatographic study of expert and biological samples containing desomorphine". Journal of Analytical Chemistry. 63 (4): 361–70. doi:10.1134/S1061934808040096.
  12. 1 2 3 Grund JP, Latypov A, Harris M (2013). "Breaking worse: The emergence of krokodil and excessive injuries among people who inject drugs in Eurasia". International Journal of Drug Policy. 24 (4): 265–274. doi:10.1016/j.drugpo.2013.04.007. PMID 23726898.
  13. Zheluk A, Quinn C, Meylakhs P (2014). "Internet Search and Krokodil in the Russian Federation: An Infoveillance Study". Journal of Medical Internet Research. 16 (9): e212. doi:10.2196/jmir.3203. PMID 25236385.
  14. Skowronek R, Celiński R, Chowaniec C (2012). ""Crocodile" – new dangerous designer drug of abuse from the East". Clinical Toxicology. 50 (4): 269. doi:10.3109/15563650.2012.660574. PMID 22385107.
  15. "Desomorphine (Krokodil) Basics". Erowid. Retrieved 3 April 2014.
  16. 1 2 3 "DESOMORPHINE (Dihydrodesoxymorphine; dihydrodesoxymorphine-D; Street Name: Krokodil, Crocodil" (PDF). Drug Enforcement Administration. Retrieved 3 April 2014.
  17. "Permonid". PubChem Compound. National Library of Medicine. Retrieved 5 May 2014.
  18. https://books.google.com/books?id=DeX7jgInYFMC&pg=PA47#v=onepage&q&f=false
  19. "Desomorphine". Specialized Information Services. Retrieved 3 April 2014.
  20. Берсенева А. (23 June 2011). "Без рецепта не обезболят". Gazeta.ru. Retrieved 12 January 2014.
  21. "Krokodil". New York State Office of Alcoholism and Substance Abuse Services. Retrieved 3 April 2014.
  22. http://www.deadiversion.usdoj.gov/fed_regs/quotas/2014/fr0825.htm
  23. http://www.deadiversion.usdoj.gov/quotas/conv_factor/index.html
  24. No Confirmed Reports of Desomorphine ( "Krokodil" / "Crocodile" ) in Canada (PDF). Canadian Centre on Substance Abuse. November 21, 2013. ISBN 978-1-77178-052-0.
  25. Mullins ME, Schwarz ES (2014). "'Krokodil' in the United States Is an Urban Legend and Not a Medical Fact". The American Journal of Medicine. 127 (7): e25. doi:10.1016/j.amjmed.2014.01.040. ISSN 0002-9343.
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