Literature DB >> 24616834

Coupling Genetic Addiction Risk Score (GARS) with Electrotherapy: Fighting Iatrogenic Opioid Dependence.

Kenneth Blum1, Marlene Oscar-Berman2, Nicholas Dinubile3, John Giordano4, Eric R Braverman5, Courtney E Truesdell6, Debmalya Barh7, Rajendra Badgaiyan8.   

Abstract

The endemic of legal opioid iatrogenic induced prescription drug abuse is of major world-wide concern. Understanding pain pathways and the role of dopaminergic tone in the neurophysiology of pain relief provides potential therapeutic solutions. A 2011 NIDA report indicated that approximately 8.7% of the entire US population above the age of 12 years has used a psychoactive drug within the past 30 days. It has been reported that the overall genetic contribution to the variance of Substance Use Disorder (SUD) was approximately 60% but each candidate gene evaluated by GWAS was relatively small. In an attempt to combat this global endemic we are proposing a number of alternative strategies. Prevention of death due to opioid overdose and attenuation of prescription abuse should focus on strategies that target 1) high-dosage medical users; 2) persons who seek care from multiple doctors; 3) persons involved in "drug diversion"; 4) genetic testing for addiction liability and severity indices; 5) non-pharmacolgical analgesic treatments such as electrotherapy.

Entities:  

Keywords:  Analgesia; Dopamine; Electrotherapy; Genetic addiction risk score; Pain; Substance use disorder (SUD)

Year:  2013        PMID: 24616834      PMCID: PMC3946872          DOI: 10.4172/2155-6105.1000163

Source DB:  PubMed          Journal:  J Addict Res Ther


A Legal Endemic in Pain Relief

The devastation continues in terms of prescription drug abuse. In 2007, approximately 27,000 unintentional (Iatrogenic) drug overdose deaths occurred in the United States, one death every 19 minutes [1,2]. Unfortunately, prescription drug abuse is the fastest growing addiction in the United States. The increase in iatrogenic drug overdose death rates has been driven by increased use of a class of prescription drugs called opioid analgesics. Since 2003, more overdose deaths have involved opioid analgesics than even heroin and cocaine combined [3,4]. For every unintentional overdose death related to an opioid analgesic, 9 individuals are admitted for substance use disorder (SUD) treatment, 35 visit emergency departments, 161 report drug abuse or dependence, and 461 report nonmedical uses of opioid analgesics [5] (Figure 1).
Figure 1

The Pain Game

Patients with a history of drug or alcohol addiction are known to present to physicians with pain complaints. There is a paucity of the medical literature on the treatment of pain with opioids in patients in recovery or active addiction due to inconsistent criteria. There are clear differences between physical dependence, tolerance, and addiction. Addiction is different from pseudo addiction especially regarding physical dependence, tolerance and must be determined by the patient's behavior after appropriate pain management. Other than opioids (long and short term) there are many other medications that can enhance pain control as adjunctive analgesics. Importantly, drug-seeking behavior may be seen with either active addiction or pseudo addiction, or as part of deviant behavior such as “drug diversion”. Safe prescribing of medications with abuse potential must be carefully monitored and genetic risk should be part of a prescreening in the pain field to reduce iatrogenic pseudo addiction. Overall, rates of opioid analgesic misuse and overdose death are highest among men, aged 20-64 years, non-Hispanic whites, and poor and rural populations. Individuals who have mental illness are overrepresented among both those who are prescribed opioids and those who overdose on them. The two main populations in the United States at risk for prescription drug overdose are the approximately 9 million individuals who report long-term medical use of opioids, and about 5 million individuals who report nonmedical use (i.e., use without a prescription or medical need), in the past month [6].

Problem of Prescription Opiates

In the past 15 years, the amount of opiates prescribed to treat chronic pain has increased significantly. Drug distribution through the pharmaceutical supply chain was the equivalent of 96 mg of morphine per person in 1997 and about 700 mg per person in 2007, an increase of >600% [6]. That 700 mg of morphine per individual is enough for everyone in the United States to take a typical 5 mg dose of Vicodin (hydrocodone and acetaminophen) every 4 hours for 3 weeks. Patients who abuse opioids have learned to exploit this increased practitioner sensitivity to pain, and clinicians struggle to treat patients without overprescribing these drugs. Among patients who are prescribed opioids, an estimated 80% are prescribed relatively low doses (<100 mg morphine equivalent dose per day, the maximum recommended daily dose of vicodin is 60 mg BID) by a single clinician and these patients account for an estimated 20% of all prescription drug overdoses. Another 10% of patients are prescribed high doses (≥ 100 mg morphine equivalent dose per day) of opioids by single physicians and account for an estimated 40% of prescription opioid overdoses. Importantly, the remaining 10% of patients are of greatest concern. These are patients who seek care from multiple clinicians and are prescribed high daily doses, and account for another 40% of opioid overdoses. Patients in this third group not only are at high risk for overdose themselves but are likely diverting or providing drugs to others who are using them without prescriptions [7].

Paving the Way to Overcoming an Unwanted Addiction Nightmare

Understanding the enormous endemic problem of prescription opioid induced Iatrogenic opioid dependence in pain patients provoked this Trieste on alternative procedures to potentially reduce risk and improve outcomes. This commentary will explore a paradigm shift in electrotherapeutic treatment used to augment tissue healing associated with human neuropathies and injuries. It is well known that besides a number of side effects reported for chronic opioid therapy, selective genetically predisposed individuals at risk for opioid dependence should be identified early in treatment [8,9].

Problems with Opiate Treatment of Chronic Pain

As mentioned above, opiates are the most commonly prescribed medication for both acute and chronic pain. Usually short term (1-2 week) use of therapeutic dose of these drugs does not lead to long-term abuse in patients with no prior addiction history or genetic vulnerability to addiction. The abuse potential increases with increasing length and dose of opiate use. Many patients receive these medications for the conditions that last for several years and decades. These conditions include low back pain and trigeminal and other forms of neuralgia and neuropathies. In these patients opioid agents start losing analgesic efficacy because of development of tolerance. It requires them to increase the dose to achieve the same level of analgesia until the dose cannot be increased due to respiratory depression and other adverse effects. It results in inadequate pain control, which is made worse by opiate induced increased pain sensitivity. This alone puts the patients and clinicians in a bind. The problem however gets worse because of addiction. Thus, chronic users of opiates not only have inadequate pain control; they also become dependent on these drugs. Because of dependency they experience withdrawal symptoms (both physical and mental) attenuate reduce pain sensitivity is contemplated. Many patients in this situation overdose. The overdose is not merely an attempt to alleviate pain and frustration but also to act on active or passive suicidal ideations, particularly because opiates are also known to cause depression leading to suicidality. Opiates therefore are not the safe treatment for chronic pain. There is need to explore alternate strategies. These strategies can take advantage of our understanding of the brain mechanisms of pain control and pain perception. Even though understanding of these mechanisms is limited at this time, there is enough information to develop non-pharmacological techniques of controlling chronic pain. These techniques are particularly important for individuals with greater genetic vulnerability to opiate dependence. A number of electrotherapeutic treatment methods have been developed to treat chronic pain. These methods have varying degrees of success in treating chronic pain. We are proposing a novel non-pharmacological approach, which involves coupling of genetic information and modulation of pain mechanisms through electrotherapy.

The New Deal: GARS and H-Wave

A number of genes and associated polymorphism are believed to impact pain tolerance and sensitivity [10]. Thus, identification of candidate gene polymorphism provides a unique therapeutic target to assist in pain treatment. We propose that pharmacogenetic testing of candidate genes (i.e., mu receptors, PENK etc.) will result in pharmacogenomic solutions personalized to the individual patient, with potential improvement in clinical outcome [11] especially in those patients who carry risk alleles as identified by the Genetic Addiction Risk Score (GARS) test (IGENE, Inc. & Dominion Diagnostics, Austin, TX). The test identifies alleles known to impart vulnerability to addiction and makes an assessment of the degree of vulnerability of an individual to develop addictive behavior. It also predicts the severity of addiction in an individual. This information could help in individualized selection of the type and duration of a non-pharmacological therapy at this time and in future it could be used to formulate gene therapy. The non-pharmacological techniques modulate activity of pain pathway. They modulate the activity at different levels of ascending and descending pain pathways. While it is well established that the principal ascending pathways originate in the dorsal horn of the spinal cord and in the medulla, additional brain areas are involved in the control of sensitivity to pain. The most important being the descending pain pathways that originate from a number of brain areas including the anterior cingulate, periaqueductal grey, and hypothalamus. A novel electrotherapeutic approach to modulate neural signals of pain involves manipulation of blood flow to effected area involving muscle stimulation and loading using a H-Wave device (Electronic Waveform Lab, Inc., Huntington Beach, CA). The H-wave device is a small diameter fiber stimulator, which uses a relatively high frequency wave form for analgesia and an ultra low frequency (2 Hz) waveform to stimulate low tension, non-tetanizing contraction, which mimics voluntary muscle contractions. The H-Wave Device Stimulation (HWDS) has been shown to reduce edema by stimulating smooth muscle fibers within the lymphatic vessels. Moreover, it induces nitric oxide (NO)-dependent augmentation of microcirculation and angiogenesis leading to accelerated tissue healing [12-15]. It accelerates healing also by inducing small muscle contraction. HWDS does not stimulate the motor nerves of large white muscle fibers or the sensory delta and C pain nerve fibers. Thus, the painful effects of tetanizing fatigue, which reduces trans-capillary fluid shifts, are eliminated and healing is accelerated [12]. Thus, HWDS attenuates pain by delivering relatively high frequency wave forms and also by accelerating healing by delivering ultra- low frequency wave forms. A recent meta-analysis found a moderate-to-strong positive effect of HWDS in providing pain relief (reducing or eliminating the need for pain medication) and in enhancing functionality [16]. A number of physiological mechanisms of action of HWDS have been investigated in animals. Figure 2 illustrates the mechanism, which is responsible for improvements in tissue circulation.
Figure 2

Characteristics of H-Wave Electrotherapy

Summary

Prescription drug abuse is becoming endemic across the United States and several European countries, as the proportion of people seeking treatment for prescription drug addiction continue to increase. In the US, opioids, tranquilizers, sedatives and stimulants are the leading drugs that are abused. The number of people seeking treatment help for opioid addiction increased more than 400%-600% in the decade ending in 2008. Currently Pseudo-addiction it is still a major health problem globally. However, only one in a hundred people abusing prescription opioids get treatment [17]. Prevention of death due to opioid overdose and attenuation of prescription abuse should focus on strategies that target 1) high-dosage medical users and 2); persons who seek care from multiple doctors; 3) these persons are likely involved in drug diversion; 4) genetic testing for addiction liability [18-21] and severity indices [22] and 5) non-pharmacological analgesic treatments such as electrotherapy [23].
  22 in total

1.  Nonmedical use of prescription opioids: what is the real problem?

Authors:  Mary Lynch
Journal:  Pain Res Manag       Date:  2013 Mar-Apr       Impact factor: 3.037

2.  H-Wave® effects on blood flow and angiogenesis in longitudinal studies in rats.

Authors:  Thomas L Smith; Michael F Callahan; Kenneth Blum; Nicholas A Dinubile; Thomas J H Chen; Roger L Waite
Journal:  J Surg Orthop Adv       Date:  2011

3.  Neurogenetics and clinical evidence for the putative activation of the brain reward circuitry by a neuroadaptagen: proposing an addiction candidate gene panel map.

Authors:  Thomas J H Chen; Kenneth Blum; Amanda L C Chen; Abdalla Bowirrat; William B Downs; Margret A Madigan; Roger L Waite; John A Bailey; Mallory Kerner; Swetha Yeldandi; Neil Majmundar; John Giordano; Siohban Morse; David Miller; Frank Fornari; Eric R Braverman
Journal:  J Psychoactive Drugs       Date:  2011 Apr-Jun

Review 4.  Hypothesizing that brain reward circuitry genes are genetic antecedents of pain sensitivity and critical diagnostic and pharmacogenomic treatment targets for chronic pain conditions.

Authors:  Amanda L-C Chen; Thomas J H Chen; Roger L Waite; Jeffrey Reinking; Howard L Tung; Patrick Rhoades; B William Downs; Eric Braverman; Dasha Braverman; Mallory Kerner; Seth H Blum; Nicholas DiNubile; David Smith; Marlene Oscar-Berman; Thomas J Prihoda; John B Floyd; David O'Brien; H H Liu; Kenneth Blum
Journal:  Med Hypotheses       Date:  2008-10-31       Impact factor: 1.538

5.  Predicting aberrant drug behavior in patients treated for chronic pain: importance of abuse history.

Authors:  Edward Michna; Edgar L Ross; Wilfred L Hynes; Srdjan S Nedeljkovic; Sharonah Soumekh; David Janfaza; Diane Palombi; Robert N Jamison
Journal:  J Pain Symptom Manage       Date:  2004-09       Impact factor: 3.612

6.  Validation of the revised Screener and Opioid Assessment for Patients with Pain (SOAPP-R).

Authors:  Stephen F Butler; Kathrine Fernandez; Christine Benoit; Simon H Budman; Robert N Jamison
Journal:  J Pain       Date:  2008-01-22       Impact factor: 5.820

7.  Contribution of CYP2B6 alleles in explaining extreme (S)-methadone plasma levels: a CYP2B6 gene resequencing study.

Authors:  Maria Dobrinas; Séverine Crettol; Beatrice Oneda; Rachel Lahyani; Margalida Rotger; Eva Choong; Rubin Lubomirov; Chantal Csajka; Chin B Eap
Journal:  Pharmacogenet Genomics       Date:  2013-02       Impact factor: 2.089

8.  H-Wave induces arteriolar vasodilation in rat striated muscle via nitric oxide-mediated mechanisms.

Authors:  Thomas L Smith; Kenneth Blum; Michael F Callahan; Nicholas A DiNubile; Thomas J H Chen; Roger L Waite
Journal:  J Orthop Res       Date:  2009-09       Impact factor: 3.494

9.  The H-Wave device is an effective and safe non-pharmacological analgesic for chronic pain: a meta-analysis.

Authors:  Kenneth Blum; Amanda L C Chen; Thomas J H Chen; Thomas J Prihoda; John Schoolfield; Nicholas DiNubile; Roger L Waite; Vanessa Arcuri; Mallory Kerner; Eric R Braverman; Patrick Rhoades; Howard Tung
Journal:  Adv Ther       Date:  2008-07       Impact factor: 3.845

10.  Contribution of cytochrome P450 and ABCB1 genetic variability on methadone pharmacokinetics, dose requirements, and response.

Authors:  Francina Fonseca; Rafael de la Torre; Laura Díaz; Antonio Pastor; Elisabet Cuyàs; Nieves Pizarro; Olha Khymenets; Magí Farré; Marta Torrens
Journal:  PLoS One       Date:  2011-05-12       Impact factor: 3.240

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  15 in total

1.  The Benefits of Genetic Addiction Risk Score (GARS) Testing in Substance Use Disorder (SUD).

Authors:  Kenneth Blum; Edward J Modestino; Marjorie Gondre-Lewis; Edwin J Chapman; Jennifer Neary; David Siwicki; David Baron; Mary Hauser; David E Smith; Alphonse Kenison Roy; Panayotis K Thanos; Bruce Steinberg; Thomas McLaughlin; Lyle Fried; Debmalya Barh; Georgia A Dunston; Rajendra D Badgaiyan
Journal:  Int J Genom Data Min       Date:  2018-01-15

2.  Coupling Genetic Addiction Risk Score (GARS) and Pro Dopamine Regulation (KB220) to Combat Substance Use Disorder (SUD).

Authors:  Kenneth Blum; Margaret A Madigan; Lyle Fried; Eric R Braverman; John Giordano; Rajendra D Badgaiyan
Journal:  Glob J Addict Rehabil Med       Date:  2017-02-23

3.  Should the United States Government Repeal Restrictions on Buprenorphine/Naloxone Treatment?

Authors:  Kenneth Blum; Mark Gold; H Westley Clark; Kristina Dushaj; Rajendra D Badgaiyan
Journal:  Subst Use Misuse       Date:  2016-07-27       Impact factor: 2.164

4.  Can Genetic Testing Provide Information to Develop Customized Nutrigenomic Solutions for Reward Deficiency Syndrome?

Authors:  Kenneth Blum; Rajendra D Badgaiyan; Zsolt Demotrovics; James Fratantonio; Gozde Agan; Marcelo Febo
Journal:  Clin Med Rev Case Rep       Date:  2015

5.  Promoting Precision Addiction Management (PAM) to Combat the Global Opioid Crisis.

Authors:  Kenneth Blum; Edward J Modestino; Jennifer Neary; Marjorie C Gondré-Lewis; David Siwicki; Mark Moran; Mary Hauser; Eric R Braverman; David Baron; Bruce Steinberg; Thomas Mc Laughlin; Rajendra D Badgaiyan
Journal:  Biomed J Sci Tech Res       Date:  2018-01-07

6.  Molecular neuro-biological and systemic health benefits of achieving dopamine homeostasis in the face of a catastrophic pandemic (COVID- 19): A mechanistic exploration.

Authors:  B W Downs; K Blum; D Bagchi; S Kushner; M Bagchi; J M Galvin; McG Lewis; D Siwicki; R Brewer; B Boyett; D Baron; J Giordano; R D Badgaiyan
Journal:  J Syst Integr Neurosci       Date:  2020-04-30

Review 7.  Clinically Combating Reward Deficiency Syndrome (RDS) with Dopamine Agonist Therapy as a Paradigm Shift: Dopamine for Dinner?

Authors:  Kenneth Blum; Marcelo Febo; Panayotis K Thanos; David Baron; James Fratantonio; Mark Gold
Journal:  Mol Neurobiol       Date:  2015-03-10       Impact factor: 5.590

8.  Can Genetic Testing Coupled with Enhanced Dopaminergic Activation Reduce Recidivism Rates in the Workers Compensation Legacy Cases?

Authors:  Kenneth Blum; Marlene Oscar-Berman; Seth H Blum; Margaret A Madigan; Roger L Waite; Thomas McLaughlin; Debmalya Barh
Journal:  J Alcohol Drug Depend       Date:  2014-05-29

9.  Critical Analysis of White House Anti-Drug Plan.

Authors:  Kenneth Blum; Lyle Fried; Margaret A Madigan; John Giordano; Edward J Modestino; Bruce Steinberg; David Baron; Michael DeLeon; Thomas McLaughlin; Mary Hauser; Rajendra D Badgaiyan
Journal:  Glob J Addict Rehabil Med       Date:  2017-04-27

10.  High Genetic Addiction Risk Score (GARS) in Chronically Prescribed Severe Chronic Opioid Probands Attending Multi-pain Clinics: an Open Clinical Pilot Trial.

Authors:  Mark Moran; Kenneth Blum; Jessica Valdez Ponce; Lisa Lott; Marjorie C Gondré-Lewis; Sampada Badgaiyan; Raymond Brewer; B William Downs; Philip Fynman; Alexander Weingarten; Jean Lud Cadet; David E Smith; David Baron; Panayotis K Thanos; Edward J Modestino; Rajendra D Badgaiyan; Igor Elman; Mark S Gold
Journal:  Mol Neurobiol       Date:  2021-03-08       Impact factor: 5.590

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