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Opioid dependence and substitution therapy: thymoquinone as a potential novel supplement therapy for a better outcome for methadone maintenance therapy substitution therapy

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Liyana Hazwani Mohd Adnan​​ 1, Nor Hidayah Abu Bakar​​ 1, Nasir Mohamad​​ 2*

1​​ Faculty of Medicine and Health Sciences (FPSK), Universiti Sultan Zainal Abidin (UniSZA), 20400, Kuala Terengganu,Terengganu, Malaysia

2​​ Innovation and​​ Research; FPSK, UniSZA, 20400, Kuala Terengganu, Terengganu, Malaysia


A B S T R A C T

Article type:​​ Letter to the editor

Methadone is widely being used for opioid substitution therapy. However, the administration of methadone to opioid dependent individual is frequently accompanied by withdrawal syndrome and chemical dependency develops. Other than that, it is also difficult to retain patients in the treatment programme making their retention rates are decreasing over time. This article is written to higlights the potential use of prophetic medicines,​​ Nigella sativa, as a supplement for opioid dependent​​ receiving methadone. It focuses on the potential role of​​ N. sativa​​ and its major active compound, Thymoquinone (TQ) as a calcium channel​​ blocking agent to reduce withdrawal syndrome and opioid dependency.

Article history

Received: Jul 17,2014

Accepted: Aug 22,2014

Keywords:

Calcium channel blocker Methadone

Nigella sativa​​ Opioid dependence Thymoquinone

 

Introduction

Methadone is the first widely used drug to overcome the opioid withdrawal effects (1, 2). It acts by occupying the receptor affected by exogenous opioids leading to subsequent receptor activation. Two channels are responsible for opioid withdrawal syndrome, calcium and potassium channel. This activation leads to closing of voltage-sensitive calcium channel (VSCC) and stimulation of potassium efflux causing hyperpolarization and inhibition of adenylyl cyclase activity (3, 4).

Successful approaches​​ to​​ pharmacotherapy​​ in opioid addiction continue to rely largely on​​ substitution​​ of short-acting agonists such as heroin​​ and​​ oral administration of​​ long​​ acting high-efficacy​​ agonists​​ (methadone) or partial agonists​​ (buprenorphine)​​ (5, 6). Notably, all​​ opioids​​ that produce​​ analgesia​​ also can cause​​ tolerance,​​ addiction​​ and​​ withdrawal,​​ and​​ all of the available opioids are​​ misused​​ (7). It​​ was​​ shown that​​ patients​​ on long-term methadone maintenance​​ treatment​​ had longer QTc​​ interval​​ values than​​ expected.​​ Withdrawal​​ symptoms among methadone maintenance therapy (MMT)​​ patients​​ had been reported to become worse ​​ and last​​ longer​​ than those of heroin or morphine due​​ to extremely longer methadone half life (8). Low patient’s retention rates in the MMT programme was also reported, making them prone to re-injecting behaviour (9-11).

 

We believe that calcium channel blocking effect may play a crucial role in opioid dependent and withdrawal syndromes as shown by L-type voltage- dependent calcium antagonist role such as verapamil​​ and felodipine in controlling the withdrawal syndromes effectively (12-15). Both central and peripheral mechanisms play an important role in attenuating opioid withdrawal syndrome via calcium channel blocking agents (16). The effects produced by calcium channel blockers are proven to be independent from opioid receptor sites as there is no agents that can replace naloxone from its binding sites (17). One study has reported that blockade of L- type voltage-dependent calcium channels by calcium channel blockers is responsible for the attenuation of morphine withdrawal (18). Other than that, T-type voltage dependent calcium channels have also been shown to play a critical role in the development of morphine dependence and withdrawal​​ (19).

Previous study reported medicinal​​ plants,​​ Nigella sativa, a scientific name for Islamic​​ Prophetic medicine, Habbatus Sauda to have L-type calcium channel blocking effect (20). Moreover, further study had also introduced its seeds as a novel treatment for opioid dependence and​​ proven effective in long term treatment of opioid dependence (21).

This plant​​ has​​ green​​ to​​ blue flowers​​ with small​​ black seeds​​ and​​ grows natively​​ in​​ temperate​​ and cold​​ climate areas.​​ The seed of​​ N.​​ sativa possesses​​ a​​ source​​ of​​ the​​ main​​ active​​ ingredients such​​ as​​ thymoquinone, monotropens-like P-cymene and α-pinene, nigellidine, nigellimine,​​ and​​ saponin​​ (22-26).

Considering its low toxicity (27-29), we hypothesized that the main active compound of​​ N.​​ sativa, Thymoquinone (TQ),​​ has​​ a​​ role​​ in​​ treating opioid withdrawal syndrome. Many therapeutic potential​​ of​​ TQ​​ have been​​ reported​​ in a​​ variety​​ of​​ medical conditions.​​ TQ​​ also​​ exhibits calcium channel blocker properties​​ via gut​​ spasmolytic, tracheal,​​ and​​ airway relaxant, vasodilator and​​ relaxant activities​​ on​​ the​​ cardiac muscles (30).​​ Thus,​​ further study​​ is​​ needed​​ in​​ order​​ to​​ explore​​ the​​ biochemical effects​​ and​​ mechanism​​ of​​ action​​ of​​ N.​​ sativa​​ at​​ cellular level.

 

Conclusion

As a conclusion, we would like to suggest probably with the supplementation of​​ N. sativa​​ to methadone, it will indirectly be a starting point to answer the question of opioid dependency and withdrawal for better retention of patients in​​ MMT.

 

Acknowledgment

The publication of this article is Supported by UniSZA Nic Research Grant Scheme (NRGS) UniSZA/NRGS/ 2013/ RR057-1.

 

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Iran J Basic Med Sci, Vol. 17, No. 12, Dec 2014



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