Nalbuphine Hcl (nalbuphine HCl)
Opioid Analgesics- IR (with all antitussive opiates) Injection Ampul (Ml)
Last reviewed · Source: First Databank (FDB) drug data
Overview
Nalbuphine hydrochloride is a synthetic opiate partial agonist analgesic.
Nalbuphine hydrochloride is used for the relief of pain that is severe enough to require an opiate analgesic; because of the risks of addiction, abuse, and misuse associated with opiates even at recommended dosages, nalbuphine should be reserved for use in patients for whom alternative treatment options (e.g., nonopiate analgesics) have not been, or are not expected to be, adequate or tolerated. The drug also is used to provide preoperative and postoperative sedation and analgesia and as a supplement to balanced surgical anesthesia. However, nalbuphine should be used with caution in patients undergoing surgery of the biliary tract.
The drug also is used for obstetrical analgesia during labor and delivery; however, nalbuphine should be used with caution in women during labor and delivery, since adverse effects associated with nalbuphine may occur in the neonate. (See Cautions: Pregnancy.) There are few published studies comparing the effectiveness of nalbuphine with other analgesics; determination of the relative value and potential for abuse of nalbuphine must await further studies and more extensive use of the drug.
Generic name: nalbuphine HCl
Drug class: Opioid Analgesics- IR (with all antitussive opiates)
Therapeutic class: Analgesic, Anti-inflammatory or Antipyretic
Reference product & biosimilars
No reference, biosimilar or interchangeable associated with this drug.
Today’s intelligence on Nalbuphine Hcl
Indications
The following indications are listed for Nalbuphine Hcl:
- General Anesthesia Adjunct
- Labor Pain
- Local Anesthesia Adjunct
- Pain
Also known as: Adjunct General Anesthesia, Adjunct Local Anesthesia.
Dosing
Opiate analgesics should be given at the lowest effective dosage and for the shortest duration of therapy consistent with the treatment goals of the patient. Dosage of nalbuphine hydrochloride should be adjusted according to the severity of pain, physical status of the patient, and other drugs that the patient is receiving. If concomitant therapy with other CNS depressants is required, the lowest effective dosages and shortest possible duration of concomitant therapy should be used. (See Cautions: Precautions and Contraindications and Drug Interactions: Benzodiazepines and Other CNS Depressants.) Care should be taken to avoid increases in dose or frequency of administration which in susceptible individuals might result in physical dependence.
For analgesia, the usual parenteral dose of nalbuphine hydrochloride is 10 mg in an adult weighing 70 kg (about 0.14 mg/kg) who is not dependent on opiate agonists. This dose may be repeated every 3-6 hours as necessary. In patients who are not tolerant to opiate agonists, the maximum single dose is 20 mg and the maximum total daily dose is 160 mg.
In patients who have been chronically receiving morphine, meperidine, codeine, or other opiate agonists with a similar duration of action, 25% of the usual dose of nalbuphine hydrochloride is given initially. The patient is observed for withdrawal symptoms (i.e., abdominal cramps, nausea, vomiting, lacrimation, rhinorrhea, anxiety, restlessness, increased temperature, piloerection). If these symptoms are troublesome, morphine may be given IV slowly in small increments until withdrawal symptoms are relieved. However, since withdrawal symptoms induced by the opiate antagonist effect of nalbuphine are self-limited, waiting until the abstinence syndrome abates is probably preferred. If withdrawal symptoms do not occur, nalbuphine doses may be increased progressively until the desired level of analgesia is obtained.
For acute pain not related to trauma or surgery, the prescribed quantity should be limited to the amount needed for the expected duration of pain severe enough to require opiate analgesia (generally 3 days or less and rarely more than 7 days).
When nalbuphine hydrochloride is used as a supplement to balanced anesthesia, doses larger than those recommended for analgesia are required. For induction, doses of the drug range from 0.3-3 mg/kg given IV over a period of 10-15 minutes. For maintenance, doses of 0.25-0.5 mg/kg may be given IV as necessary.
For further information on the management of opiate analgesic therapy, see Dosage and Administration: Dosage, in the Opiate Agonists General Statement 28:08.08.
Nalbuphine hydrochloride is administered by subcutaneous, IM, or IV injection. As with other parenteral products, nalbuphine hydrochloride injection should be inspected visually for particulate matter and discoloration prior to administration whenever solution and container permit.
| Drug label | Dosing type | Instructions |
|---|---|---|
| Nalbuphine 10 Mg/Ml Ampul | Maintenance | Inject 10 mg by subcutaneous route every 6 hours as needed. |
| Drug label | Dosing type | Instructions |
|---|---|---|
| Nalbuphine 10 Mg/Ml Ampul | Maintenance | Inject 10 mg by subcutaneous route every 6 hours as needed. |
Drug interactions
There is no enhanced messaging for this drug.
Contraindicated Drug Combination: This drug combination is contraindicated and generally should not be dispensed or administered to the same patient.
Opioid Analgesics/Opioid Antagonists
SEVERITY LEVEL: 1-Contraindicated Drug Combination: This drug combination is contraindicated and generally should not be dispensed or administered to the same patient.
MECHANISM OF ACTION: Naltrexone, nalmefene, and samidorphan are opioid antagonists and thus inhibit the effects of opioid analgesics.(1-3)
CLINICAL EFFECTS: Concurrent administration or the administration of naltrexone within 7-10 days of opioids may induce acute abstinence syndrome or exacerbate a pre-existing subclinical abstinence syndrome.(1,4) Patients taking naltrexone may not experience beneficial effects of opioid-containing medications.(4) Samidorphan can precipitate opioid withdrawal in patients who are dependent on opioids. In patients who use opioids, delay initiation of samidorphan for a minimum of 7 days after last use of short-acting opioids and 14 days after last use of long-acting opioids.(3) Concurrent use of nalmefene tablets with opioid agonists may prevent the beneficial effects of the opioid.(2)
PREDISPOSING FACTORS: None determined.
PATIENT MANAGEMENT: The manufacturer of naltrexone states that the administration of naltrexone concurrently with opioids or to patients dependent on opioids is contraindicated.(1,4) Patients previously dependent on short-acting opioids should be opioid-free for a minimum of seven to ten days before beginning naltrexone therapy. Patients previously on buprenorphine or methadone may be vulnerable to withdrawal symptoms for as long as 2 weeks.(1,4) The manufacturer of naltrexone states that the naloxone challenge test, described in the naltrexone prescribing information, can be administered to determine if patients are opioid free.(1) The manufacturer of samidorphan states the concurrent use of samidorphan in patients using opioids or undergoing acute opioid withdrawal is contraindicated. Prior to initiating samidorphan, there should be at least a 7-day opioid free interval from the last use of short-acting opioids, and at least a 14-day opioid free interval from the last use of long-acting opioids.(3) The UK manufacturer of nalmefene tablets (for reduction of alcohol consumption) states the concurrent use of opioid analgesics is contraindicated.(2) Suspend the use of nalmefene tablets for 7 days prior to the anticipated use of opioids (e.g., elective surgery).(2)
DISCUSSION: A double-blind, randomized, placebo-control study evaluated pain relief and side effects of 35 opioid-naive patients undergoing cesarean section. All patients received spinal anesthesia (bupivacaine and morphine) and were randomized to also receive placebo, naltrexone 3 mg, or naltrexone 6 mg. Patients treated with naltrexone experienced shorter duration of pain relief (not statistically significant), however incidence of opioid-induced side effects was reduced. Patients in the naltrexone 6 mg group had lower rates of pruritus, vomiting, and somnolence (all statistically significant) compared to the placebo group.(5) In a double-blind, randomized, placebo-control trial ten recreational opioid users were studied to determine the effects of hydromorphone (4 mg and 16 mg), tramadol (87.5 mg, 175 mg, and 350 mg), and placebo after pretreatment with naltrexone (50 mg) or placebo. Results show that lower doses of hydromorphone and tramadol acted similar to placebo. Hydromorphone 16 mg alone caused euphoria and miosis which were blocked by naltrexone. Tramadol 350 mg produced a lower magnitude of euphoria and miosis compared to hydromorphone. Naltrexone partially diminished the euphoria caused by tramadol, while it enhanced some of the unpleasant monoaminergic effects (flushing, malaise, vomiting).(6) A case report describes a 28 year-old ex-heroin addict who was stable on methadone 100 mg daily and simultaneously stopped using heroin and began drinking alcohol. He was admitted to the hospital for alcohol detoxification and, by mistake, was given naltrexone 100 mg instead of methadone 100 mg. The patient experienced withdrawal symptoms including chills, agitation, muscle and abdominal pain, generalized piloerection, and dilated pupils. Treatment of withdrawal was titrated to treat symptoms and required administration 78 mg of parenteral hydromorphone, after which the patient experienced relief for the following six hours.(8) Intentional administration of an opioid antagonist, naloxone, with opioid analgesics has been performed with close monitoring to lower required opioid dose by inducing withdrawal. Three case reports describe patients who had improved pain relief on significantly reduced doses of opioid analgesics.(8) In a double-blind controlled trial, 267 trauma patients were randomized to receive 0.05 mg/kg intravenous morphine either alone or in combination with 5 mg naltrexone oral suspension. Evaluated endpoints include reduction of pain and incidence of side effects. Results indicate that ultra-low dose naltrexone does not alter opioid requirements for pain control, but does lower incidence of nausea [2 (1.16%) vs 16 (11.6%), p<0.001].(9)
Severe Interaction: Action is required to reduce the risk of severe adverse interaction.
Agents That May Cause Respiratory Depression/Sodium Oxybate
SEVERITY LEVEL: 2-Severe Interaction: Action is required to reduce the risk of severe adverse interaction.
MECHANISM OF ACTION: Oxybate by itself may be associated with severe somnolence or respiratory depression. Concurrent use with other CNS depressants may further increase the risk for respiratory depression or loss of consciousness.(1-3)
CLINICAL EFFECTS: Concurrent use of sodium oxybate and sedative hypnotics or alcohol may further increase the risk for profound sedation, respiratory depression, coma, and/or death.(1,2) Fatalities have been reported.(3)
PREDISPOSING FACTORS: Based upon FDA evaluation of deaths in patients taking sodium oxybate, risk factors may include: use of multiple drugs which depress the CNS, more rapid than recommended oxybate dose titration, exceeding the maximum recommended oxybate dose, and prescribing for unapproved uses such as fibromyalgia, insomnia or migraine. Note that in oxybate clinical trials for narcolepsy 78% - 85% of patients were also receiving concomitant CNS stimulants.(1-3)
PATIENT MANAGEMENT: Avoid use of concomitant opioids, benzodiazepines, sedating antidepressants, sedating antipsychotics, general anesthetics, or muscle relaxants, particularly when predisposing risk factors are present. If combination use is required, dose reduction or discontinuation of one or more CNS depressants should be considered. If short term use of an opioid or general anesthetic is required, consider interruption of sodium oxybate treatment.(1,2) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(4) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(5)
DISCUSSION: The FDA evaluated sodium oxybate postmarket fatal adverse event reports from the FDA Adverse Event Reporting System(AERS)and from the manufacturer. Although report documentation was not always optimal or complete, useful information was obtained. Factors which may have contributed to fatal outcome: concomitant use of one or more drugs which depress the CNS, more rapid than recommended oxybate dose titration, exceeding the maximum recommended oxybate dose, and prescribing for unapproved uses such as fibromyalgia, insomnia or migraine. Many deaths occurred in patients with serious psychiatric disorders such as depression and substance abuse. Other concomitant diseases may have also contributed to respiratory and CNS depressant effects of oxybate.(3)
Nalbuphine/Chronic Opioids
SEVERITY LEVEL: 2-Severe Interaction: Action is required to reduce the risk of severe adverse interaction.
MECHANISM OF ACTION: Nalbuphine antagonizes mu-opiate receptors.(1) Other opioids agonize mu-opiate receptors.
CLINICAL EFFECTS: Concurrent use of nalbuphine with other opioids in opioid dependent patients may result in withdrawal symptoms. Concurrent use in other patients may result in additive or decreased analgesia, decreased opioid side effects, and/or renarcotization.
PREDISPOSING FACTORS: Patients dependent on opioids or taking higher doses of opioids may be more likely to experience withdrawal symptoms with concurrent use. In opioid naive patients, higher doses of nalbuphine may result in decreased analgesic effects.
PATIENT MANAGEMENT: Use nalbuphine with caution in patients maintained or dependent on other opioids and monitor for signs of withdrawal. In other patients, also monitor for changes in analgesic effects. If nalbuphine is used to reverse opioid anesthesia, monitor patients for renarcotization.
DISCUSSION: Nalbuphine has been successfully used as an adjunct to morphine without decreasing analgesic effects.(2,3) However, other studies reported increased morphine requirements in patients who had initially received nalbuphine.(4,5) Nalbuphine has been used to reverse fentanyl anesthesia;(8-13) however, patients often required additional pain medication(5-7) and some studies reported renarcotization after the effects of nalbuphine wore off.(9,10) Nalbuphine has also been used to prevent epidural fentanyl,(13) morphine(14-16), and hydromorphone induced pruritus;(17,18) however, one study reported shortening of the duration of analgesia(16) and another reported increased PCA demands.(17) In methadone-dependent subjects, administration of nalbuphine produced withdrawal symptoms similar to naloxone.(19,20) Administration of nalbuphine to patients maintained on controlled-release morphine resulted in withdrawal symptoms.(20,21)
Moderate Interaction: Assess the risk to the patient and take action as needed.
Agents With Hyponatremia Risk/Desmopressin
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Carbamazepine, chlorpromazine, lamotrigine, NSAIDs, opioids, SSRIs, thiazide diuretics, and/or tricyclic antidepressants increase the risk of hyponatremia.(1-3)
CLINICAL EFFECTS: Concurrent use may increase the risk of hyponatremia with desmopressin.(1-3)
PREDISPOSING FACTORS: Predisposing factors for hyponatremia include: polydipsia, renal impairment (eGFR < 50 ml/min/1.73m2), illnesses that can cause fluid/electrolyte imbalances, age >=65, medications that cause water retention and/or increase the risk of hyponatremia (glucocorticoids, loop diuretics).
PATIENT MANAGEMENT: The concurrent use of agents with a risk of hyponatremia with desmopressin may increase the risk of hyponatremia. If concurrent use is deemed medically necessary, make sure serum sodium levels are normal before beginning therapy and consider using the desmopressin nasal 0.83 mcg dose. Consider measuring serum sodium levels more frequently than the recommended intervals of: within 7 days of concurrent therapy initiation, one month after concurrent therapy initiation and periodically during treatment. Counsel patients to report symptoms of hyponatremia, which may include: headache, nausea/vomiting, feeling restless, fatigue, drowsiness, dizziness, muscle cramps, changes in mental state (confusion, decreased awareness/alertness), seizures, coma, and trouble breathing. Counsel patients to limit the amount of fluids they drink in the evening and night-time and to stop taking desmopressin if they develop a stomach/intestinal virus with nausea/vomiting or any nose problems (blockage, stuffy/runny nose, drainage).(1)
DISCUSSION: In clinical trials of desmopressin for the treatment of nocturia, 4 of 5 patients who developed severe hyponatremia (serum sodium <= 125 mmol/L) were taking systemic or inhaled glucocorticoids. Three of these patients were also taking NSAIDs and one was receiving a thiazide diuretic.(2) Drugs associated with hyponatremia may increase the risk, including loop diuretics, carbamazepine, chlorpromazine, glucocorticoids, lamotrigine, NSAIDs, opioids, SSRIs, thiazide diuretics, and/or tricyclic antidepressants.(1,3-4)
Nalbuphine/Opioids
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Nalbuphine(1) antagonizes mu-opiate receptors. Other opioids agonize mu-opiate receptors.
CLINICAL EFFECTS: Concurrent use of nalbuphine with other opioids in opioid dependent patients may result in withdrawal symptoms. Concurrent use in other patients may result in additive or decreased analgesia, decreased opioid side effects, and/or renarcotization.
PREDISPOSING FACTORS: Patients dependent on opioids may be more likely to experience withdrawal symptoms with concurrent use. In opioid naive patients, higher doses of nalbuphine may result in decreased analgesic effects.
PATIENT MANAGEMENT: Use nalbuphine with caution in patients maintained or dependent on other opioids and monitor for signs of withdrawal. In other patients, also monitor for changes in analgesic effects. If nalbuphine is used to reverse opioid anesthesia, monitor patients for renarcotization.
DISCUSSION: Nalbuphine has been successfully used as an adjunct to morphine without decreasing analgesic effects.(2,3) However, other studies reported increased morphine requirements in patients who had initially received nalbuphine.(4,5) Nalbuphine has been used to reverse fentanyl anesthesia;(8-13) however, patients often required additional pain medication(5-7) and some studies reported renarcotization after the effects of nalbuphine wore off.(9,10) Nalbuphine has also been used to prevent epidural fentanyl,(13) morphine(14-16), and hydromorphone induced pruritus;(17-18) however, one study reported shortening of the duration of analgesia(16) and another reported increased PCA demands.(17) In methadone-dependent subjects, administration of nalbuphine produced withdrawal symptoms similar to naloxone.(19,20) Administration of nalbuphine to patients maintained on controlled-release morphine resulted in withdrawal symptoms.(20,21)
Opioids (Immediate Release)/Benzodiazepines
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and benzodiazepines may result in additive CNS depression.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants, such as benzodiazepines, may result in profound sedation, respiratory depression, coma, and/or death.(1)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as benzodiazepines to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(2) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(3)
DISCUSSION: Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(4) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(5) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(6) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(7) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(8) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(9) A study of 315,428 privately insured patients who filled at least one prescription for an opioid from 2001 to 2013 were enrolled in a retrospective study. Concurrent use of a benzodiazepine was recorded as having at least one day of overlap in a given calendar year. Baseline characteristics among opioid users with concurrent use of a benzodiazepine were older (44.5 v. 42.4, p<0.001), less likely to be men (35% v. 43%, p<0.001), and had a higher prevalence rate of every comorbidity examined (p<0.001). The proportion of opioid users with concurrent benzodiazepine use nearly doubled from 9% in 2001 to 17% in 2013. The primary outcome was an emergency room visit or inpatient admission for opioid overdose within a calendar year. Among all opioid users, the annual adjusted incidence for the primary outcome was 1.16% without concurrent benzodiazepine use compared to 2.42% with concurrent benzodiazepine use (OR 2.14; 95% CI 2.05-2.24; p<0.001). Intermittent opioid users (1.45% v. 1.02%; OR 1.42; 95% CI 1.33-1.51; p<0.001) and chronic opioid users (5.36% v. 3.13%; OR 1.81; 95% CI 1.67-1.96; p<0.001) also experienced a higher adjusted incidence of the primary outcome with concurrent benzodiazepine use compared to without concurrent benzodiazepine use, respectively.(10) In a nested case-control study of adults with a new opioid dispensing between 2010-2018, patients with concurrent use of an opioid with a benzodiazepine were significantly more likely to have opioid-related overdose compared to patients receiving opioids, benzodiazepines, or neither (OR 9.28; 95% CI 7.87, 10.93). Longer concurrent use of 1-7, 8-30, and 31-90 days was associated with 4.6, 12.1, and 26.7-fold higher likelihood of opioid-related overdose (p<0.01). Patients with overlapping prescriptions during previous 0-30, 31-60, and 61-90 days were 13.2, 6.0, and 3.2-times more likely to experience an overdose (p<0.01).(11)
Opioids (Immediate Release)/Cyclobenzaprine
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and cyclobenzaprine may result in additive CNS depression.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants, such as cyclobenzaprine, may result in profound sedation, respiratory depression, coma, and/or death.(1)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as muscle relaxants to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(2) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(3)
DISCUSSION: Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(4) A retrospective cohort study compared the risk of opioid overdose associated with concomitant use of opioids and skeletal muscle relaxants versus opioid use alone. The study examined two types of opioid users (naive opioid use and prevalent opioid use) with and without exposure to skeletal muscle relaxants. The adjusted hazard ratios (HR) were 1.09 and 1.26 in the naive and prevalent opioid user cohorts, respectively, generating a combined estimate of 1.21. The risk increased with treatment duration (less than or equal to 14 days: 0.91; 15-60 days: 1.37; and greater than 60 days: 1.80) and for the use of baclofen and carisoprodol (HR 1.83 and 1.84, respectively). Elevated risk was associated with concomitant users with daily opioid dose greater than 50 mg and benzodiazepine use (HR 1.50 and 1.39, respectively).(5) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(6) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(7) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(8) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(9) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(10)
Opioids (Immediate Release)/Muscle Relaxants
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and muscle relaxants may result in additive CNS depression.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants, such as muscle relaxants, may result in profound sedation, respiratory depression, coma, and/or death.(1)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as muscle relaxants to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(2) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(3)
DISCUSSION: Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(4) A retrospective cohort study compared the risk of opioid overdose associated with concomitant use of opioids and skeletal muscle relaxants versus opioid use alone. The study examined two types of opioid users (naive opioid use and prevalent opioid use) with and without exposure to skeletal muscle relaxants. The adjusted hazard ratios (HR) were 1.09 and 1.26 in the naive and prevalent opioid user cohorts, respectively, generating a combined estimate of 1.21. The risk increased with treatment duration (less than or equal to 14 days: 0.91; 15-60 days: 1.37; and greater than 60 days: 1.80) and for the use of baclofen and carisoprodol (HR 1.83 and 1.84, respectively). Elevated risk was associated with concomitant users with daily opioid dose greater than 50 mg and benzodiazepine use (HR 1.50 and 1.39, respectively).(5) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(6) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(7) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(8) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(9) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(10)
Opioids (Immediate Release)/Selected Stimulants
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Opioids and stimulants exhibit opposing effects on the CNS.
CLINICAL EFFECTS: Opposing CNS effects of opioids and stimulants may compromise the effectiveness of both agents and mask opioid overdose symptoms such as drowsiness and inability to focus.
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS stimulants such as amphetamines to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain. If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(1) Monitor patients receiving concurrent therapy for signs of substance abuse. Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness. Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).
DISCUSSION: A total of 70,237 persons died from drug overdoses in the United States in 2017; approximately two thirds of these deaths involved an opioid.(2). The CDC analyzed 2016-2017 changes in age-adjusted death rates involving cocaine and psychostimulants by demographic characteristics, urbanization levels, U.S. Census region, 34 states, and the District of Columbia (DC). The CDC also examined trends in age-adjusted cocaine-involved and psychostimulant-involved death rates from 2003 to 2017 overall, as well as with and without co-involvement of opioids. Among all 2017 drug overdose deaths, 13,942 (19.8%) involved cocaine, and 10,333 (14.7%) involved psychostimulants. Death rates increased from 2016 to 2017 for both drug categories across demographic characteristics, urbanization levels, Census regions, and states. In 2017, opioids were involved in 72.7% and 50.4% of cocaine-involved and psychostimulant-involved overdoses, respectively, and the data suggest that increases in cocaine-involved overdose deaths from 2012 to 2017 were driven primarily by synthetic opioids.(3) There was opioid co-involvement in 72.7 percent of cocaine and 50.4 percent of stimulant-involved overdose deaths. This was largely driven by synthetic opioids such as fentanyl. However, stimulant-involved overdose without opioid co-involvement is also increasing.(2)
Opioids (Immediate Release)/Sleep Drugs
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and sleep drugs may result in additive CNS depression and sleep-related disorders.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants, such as sleep drugs, may result in profound sedation, respiratory depression, coma, and/or death.(1) Concurrent use of opioids with eszopiclone, zaleplon, or zolpidem may increase the risk of sleep-related disorders including central sleep apnea and sleep-related hypoxemia and complex sleep behaviors like sleepwalking, sleep driving, and other activities while not fully awake. Rarely, serious injuries or death have resulted from complex sleep behaviors.(2)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as sleep drugs to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(3) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Eszopiclone, zaleplon, and zolpidem are contraindicated in patients who have had a previous episode of complex sleep behavior.(2) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(4)
DISCUSSION: Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(5) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(6) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(7) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(8) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(9) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(10) As of April 2019, the FDA had identified 66 cases of complex sleep behaviors with eszopiclone, zaleplon, or zolpidem, of which 20 cases resulted in death and the remainder resulted in serious injuries. It was not reported how many of the cases involved concomitant use of other CNS depressants.(2)
Opioids (Ir & Er)/Gabapentinoids
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Opioid-induced reduction in GI motility may increase the absorption of gabapentin and pregabalin.(1) Gabapentin and pregabalin may reverse opioid-induced tolerance of respiratory depression.(2) Concurrent use may result in profound sedation, respiratory depression, coma, and/or death.(3)
CLINICAL EFFECTS: Concurrent use of opioids may result in elevated levels of and toxicity from gabapentin and pregabalin, including profound sedation, respiratory depression, coma, and/or death.(1-7)
PREDISPOSING FACTORS: Patients who are elderly, are taking other CNS depressants, have decreased renal function, and/or have conditions that reduce lung function (e.g. Chronic Obstructive Pulmonary Disease [COPD]) may be at a higher risk of this interaction.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics and gabapentinoids to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a gabapentinoid with an opioid analgesic, prescribe a lower initial dose of the gabapentinoid than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a gabapentinoid, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(8) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(9)
DISCUSSION: In a study in 12 healthy males, administration of a single dose of morphine (60 mg sustained release) increased the area-under-curve (AUC) of a single dose of gabapentin (600 mg) by 44%.(1,3,4) There were no affects on the pharmacokinetics of morphine.(1,3,4) The combination of gabapentin plus morphine increased pain tolerance over the combination of morphine plus placebo. Side effects were not significantly different between morphine plus placebo and morphine plus gabapentin.(1) A retrospective, case-control study of opioid users in Ontario, Canada between August 1, 1997 and December 31, 2013 who died of an opioid-related cause matched cases to up to 4 controls who also used opioids. Use of gabapentin in the 120 days prior to death resulted in a significant increase in odds of opioid-related death (OR 1.99, CI=1.61-2.47, p<0.001), compared to opioid use alone. Use of moderate dose (900 mg to 1,799 mg daily) or high dose (>= 1,800 mg daily) gabapentin increased the odds of opioid-related death 60% compared to opioid use without gabapentin. Review of gabapentin prescriptions from calendar year 2013 found that 46% of gabapentin users received at least 1 opioid prescription.(3) Among 49 case reports submitted to FDA over a 5 year period (2012-2017), 12 people died from respiratory depression with gabapentinoids. Two randomized, double-blind, placebo-controlled clinical trials in healthy people, three observational studies, and several studies in animals were reviewed. A trial showed that using pregabalin alone and using it with an opioid pain reliever can depress breathing function. Three observational studies showed a relationship between gabapentinoids given before surgery and respiratory depression occurring after surgery. Several animal studies also showed that pregabalin plus opioids can depress respiratory function.(7) A retrospective cohort study evaluated the risk of mortality among Medicare beneficiaries aged 65 and older who were taking gabapentin with or without concurrent use of opioids. All-cause mortality in gabapentin users compared to duloxetine users was 12.16 per 1,000 person years vs. 9.94 per 1,000 person years, respectively. Adjusted for covariates, the risk of all-cause mortality among gabapentin users on high-dose opioids was more than double the control group (hazard ratio (HR) 2.03, CI=1.19-3.46).(10)
Opioids/Buprenorphine; Pentazocine
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Buprenorphine is a partial agonist at mu-opiate receptors, exhibiting a ceiling effect at which higher doses produce no further effect. Pentazocine is a mixed agonist-antagonist at opiate receptors.(1) Full mu-opioid agonists (e.g., morphine, methadone) continue to have increased effects at higher doses without ceiling effects.(2)
CLINICAL EFFECTS: Concurrent use of buprenorphine or pentazocine with other opioids in opioid dependent patients may result in withdrawal symptoms. Concurrent use in other patients may result in additive or decreased analgesia and decreased opioid side effects.
PREDISPOSING FACTORS: Patients dependent on opioids or who take higher dosages of opioids may be more likely to experience withdrawal symptoms with concurrent use.
PATIENT MANAGEMENT: Use buprenorphine and pentazocine with caution in patients maintained or dependent on other opioids and monitor for signs of withdrawal. In other patients, also monitor for changes in analgesic effects. The manufacturer of Sublocade states buprenorphine may precipitate opioid withdrawal in patients who are currently physically dependent on full opioid agonists. The risk of withdrawal may be increased if buprenorphine is given less than 6 hours after short-acting opioids (such as heroin, morphine) and less than 24 hours after long-acting opioids (such as methadone).(3)
DISCUSSION: Concurrent use of buprenorphine with other opioids in opioid dependent patients could result in withdrawal symptoms. Concurrent use in other patients may result in additive or decreased analgesia, decreased opioid side effects, and/or renarcotization.(2) In clinical trials, administration of buprenorphine injection produced withdrawal symptoms in patients maintained on methadone (30 mg daily) when administered 2 hours post-methadone,(4) but not when administered 20 hours post-methadone.(5) In another study, sublingual buprenorphine produced withdrawal symptoms in patients maintained on methadone. Symptoms were more pronounced in patients maintained on 60 mg daily doses than in patients maintained on 30 mg daily doses.(6) In a study of 10 patients maintained on methadone (100 mg daily), only three were able to tolerate escalating sublingual doses of buprenorphine/naloxone up to 32/8 mg. Split doses produced less withdrawal symptoms than full doses.(7) In a case report, a heroin-user maintained in a buprenorphine-maintenance program began stockpiling his buprenorphine instead of ingesting it and began using heroin. He then decided to re-initiate treatment on his own and ingested between 80 and 88 mg of buprenorphine over a two day period and experienced extreme withdrawal symptoms, despite restarting heroin during these symptoms. Methadone relieved his withdrawal symptoms.(8)
Select Opioids (Immediate Release)/Select Tranquilizers
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and tranquilizers may result in additive CNS depression.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants such as tranquilizers may result in profound sedation, respiratory depression, coma, and/or death.(1)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as tranquilizers to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(2) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(3)
DISCUSSION: Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(4) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(5) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(6) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(7) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(8) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(9)
Selected Opioid Analgesics/Cimetidine
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: The metabolism of selected opioid analgesics may be inhibited by cimetidine.(1-15) At doses of 800-2400 mg daily, cimetidine is a moderate inhibitor of CYP3A4 and a weak inhibitor of CYP1A2, CYP2C19, CYP2C9, and CYP2D6.(16) Benzhydrocodone is a prodrug of hydrocodone.(12)
CLINICAL EFFECTS: The effect of selected opioid analgesics may be increased including profound sedation, respiratory depression, coma, and/or death. Opioid analgesics have been associated with histamine release and is dependent on dose, route of administration, and rate of administration. Histamine release can cause arteriole dilation and contribute to a profound decrease in systemic blood pressure. The cardiovascular effects of histamine release occurring with the opioid analgesics may be decreased by giving cimetidine concurrently.
PREDISPOSING FACTORS: None determined.
PATIENT MANAGEMENT: Cimetidine use at higher doses of 200-400 mg four times daily would have an increased risk of inhibiting the metabolism of opioid analgesics. Lower doses and over-the-counter doses of cimetidine would be expected to have a diminished effect. Consider using alternative H2 antagonists when long-term concurrent therapy with opioid analgesics is indicated. The manufacturer of sufentanil sublingual tablets states that if concomitant use with CYP3A4 inhibitors is necessary, consider use of an alternate agent that allows dose adjustment.(15) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(17) Monitor the patient for increased adverse effects of the opioid analgesic including respiratory and central nervous system depression, unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness. Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(18)
DISCUSSION: Severe respiratory depression has been reported with the concurrent administration of opioid analgesics and cimetidine. Systemic levels of opioid analgesics metabolized by CYP3A4 may be increased during concurrent use with cimetidine, a CYP3A4 inhibitor.(1-15) In a study of 6 healthy subjects, the effects of ketoconazole (a strong CYP3A4 inhibitor) 400 mg daily for 3 days on alfentanil were studied. The maximum concentration (Cmax) and area-under-curve (AUC) of alfentanil were increased with both sequential and simultaneous dosing of alfentanil with concurrent ketoconazole.(19) In a study of 16 healthy subjects, the effects of ketoconazole 300 mg twice daily for 2 days on fentanyl 5 mcg/kg single dose were examined. Fentanyl AUC was increased by 133% and clearance was reduced to 78%. The metabolism of fentanyl to norfentanyl by CYP3A4 was delayed and partial metabolic clearance decreased by 18% with concurrent ketoconazole.(20) In vitro results of the effects of ketoconazole on hydrocodone confirmed CYP3A4 is responsible for the metabolism of hydrocodone to norhydrocodone.(21) A review discussed the metabolism of hydrocodone by CYP2D6 to O-demethylated hydromorphone and by CYP3A4 to N-demethylated norhydrocodone. CYP3A4 activity is reported as higher in women resulting in higher fractions of the norhydrocodone metabolite in women than in men.(22) A case report of a 46 year old hemodialysis patient was on routine therapy with phenytoin 100 mg three times daily and cimetidine 300 mg three times daily. Four days after starting cimetidine, morphine 15 mg IM every 4 hours was initiated for pain. After the sixth dose of morphine, the patient was apneic with a respiratory rate of 3 breaths/minute and had a grand mal seizure. The patient responded to naloxone 0.4 mg IV single dose with improvement in respiratory rate to 12 breaths/minute. Cimetidine was stopped and phenytoin decreased to 100 mg twice daily with improvement after 80 hours from initial episode. A month later the patient required surgery and was given cimetidine 150 mg twice daily followed by Pantopon 15 mg IM every 3-6 hours postoperatively for pain. The patient again became apneic, confused, and developed muscle twitching which responded to naloxone 0.4 mg for 4 doses over the next 24 hours with complete recovery.(23) In a study of 8 healthy subjects, the effects of cimetidine on morphine were studied. Subjects were evaluated in three study periods: morphine 10 mg IM single dose; cimetidine 600 mg oral given one hour before morphine 10 mg IM single dose; and cimetidine 600 mg oral single dose. Morphine reduced resting ventilation and increased end-tidal CO2 with peak effects at 120 minutes and resolution at 12 hours. Morphine with cimetidine pretreatment had similar effects on resting ventilation and end-tidal CO2, however the recovery ratio from 120 to 720 minutes was significantly different than morphine alone (p<0.05).(24) In a study of 7 healthy subjects, the effects of cimetidine 300 mg oral four times daily for 4 days on morphine 10 mg IV single dose were evaluated. No significant differences were found in morphine concentrations at any time point from zero to ten hours after dose administration with and without cimetidine. Morphine elimination half-life (t1/2), systemic clearance, volume of distribution, and AUC with and without cimetidine had no statistical differences.(25) In a study of 40 patients undergoing elective coronary artery bypass graft surgery were randomized to receive either cimetidine 4 mg/kg, diphenhydramine 1 mg/kg, a combination of both cimetidine and diphenhydramine, or placebo, followed by morphine 1 mg/kg. Patients were randomized to one of four groups: 1. placebo plus morphine; 2. cimetidine plus morphine; 3. diphenhydramine plus morphine; or 4. cimetidine plus diphenhydramine plus morphine. Patients in group 1 had a 10-fold increase in plasma histamine levels within 2 minutes of morphine with a decrease in mean BP, diastolic BP, and systemic vascular resistance (SVR). Group 2 has similar effects with a peak change in SVR and plasma histamine rise within 2 minutes of morphine. The change in SVR was significant when compared to placebo but less than group 1. Group 3 patients had an increase in heart rate (HR) from diphenhydramine alone as well as peak effects within 2 minutes of morphine with decreases in BP and SVR but were less than morphine alone. Group 4 patients had a 7-fold increase in histamine with a significant increase in HR, diastolic BP, and BP. When group 4 is compared to group 1, patients had a decrease in SVR and diastolic BP that was significantly less despite comparable increases in plasma histamine.(26) In vitro testing of oxycodone and methadone, cimetidine caused a greater than 50% inhibition in all pathways: CYP2B6, CYP3A4, CYP2C18, and CYP2D6. Cimetidine was found to be a weak reversible inhibitor in vitro. Extrapolation of the data to in vivo inhibition is unlikely to produce significant inhibition unless concentrations exceed normal doses by 10-fold.(27) Two studies examined the effects of CYP2D6 and CYP3A4 on the metabolism of oxycodone as well as genetic polymorphism influences. After concurrent administration of oxycodone with ketoconazole, the Cmax of the metabolites noroxycodone and noroxymorphone were decreased by 80% from baseline.(28,29) A review discussed the metabolism of oxycodone by CYP3A4 to noroxycodone, the major metabolite with weak antinociceptive properties, and by CYP2D6 to the active minor metabolite oxymorphone.(30) In a study of 8 male subjects, effects of cimetidine 600 mg twice daily for seven days on pethidine 70 mg IV single dose was evaluated. Concurrent use with cimetidine was associated with a 22% decrease in clearance, 11% decrease in elimination rate, and a 13% decrease in volume of distribution of pethidine. Changes were also seen in norpethidine, the primary metabolite, with a 23% decrease in AUC and 29% decrease in Cmax.(31) Opioid analgesics linked to this monograph include: alfentanil, benzhydrocodone, dihydrocodeine, fentanyl, hydrocodone, meperidine, meptazinol, nalbuphine, oxycodone, oxymorphone, pentazocine, propoxyphene, and sufentanil.
Selected Opioids (Immediate Release)/Metaxalone
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and metaxalone may result in additive CNS depression.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants, such as the muscle relaxant metaxalone, may result in profound sedation, respiratory depression, coma, and/or death.(1)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as the muscle relaxant metaxalone to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(2) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(3)
DISCUSSION: Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(4) A retrospective cohort study compared the risk of opioid overdose associated with concomitant use of opioids and skeletal muscle relaxants versus opioid use alone. The study examined two types of opioid users (naive opioid use and prevalent opioid use) with and without exposure to skeletal muscle relaxants. The adjusted hazard ratios (HR) were 1.09 and 1.26 in the naive and prevalent opioid user cohorts, respectively, generating a combined estimate of 1.21. The risk increased with treatment duration (less than or equal to 14 days: 0.91; 15-60 days: 1.37; and greater than 60 days: 1.80) and for the use of baclofen and carisoprodol (HR 1.83 and 1.84, respectively). Elevated risk was associated with concomitant users with daily opioid dose greater than 50 mg and benzodiazepine use (HR 1.50 and 1.39, respectively).(5) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(6) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(7) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(8) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(9) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(10)
Slt Opioids (Immediate Release)/Antipsychotics;Phenothiazine
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and antipsychotics, including phenothiazine derivatives, may result in additive CNS depression.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants, such as antipsychotics, including phenothiazine derivatives, may result in profound sedation, respiratory depression, coma, and/or death.(1)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as antipsychotics, including phenothiazine derivatives, to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(2) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(3)
DISCUSSION: A nested case-control study looked at the relationship between antipsychotic use and risk of acute respiratory failure. Current use of antipsychotics was associated with a 2.33-fold increase in risk of respiratory failure compared to no use of antipsychotics. The risk was also significantly increased in patients with recent use of antipsychotics (within the past 15-30 days, OR = 1.79) and recent past use (within 31-90 days OR = 1.41). The risk increased with higher doses and longer duration of use.(4) Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(5) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(6) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(7) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(8) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(9) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(10)
Slt Opioids (Immediate Release)/Ziprasidone
SEVERITY LEVEL: 3-Moderate Interaction: Assess the risk to the patient and take action as needed.
MECHANISM OF ACTION: Concurrent use of opioids and antipsychotics such as ziprasidone may result in additive CNS depression.(1)
CLINICAL EFFECTS: Concurrent use of opioids and other CNS depressants such as ziprasidone may result in profound sedation, respiratory depression, coma, and/or death.(1)
PREDISPOSING FACTORS: Concurrent use of alcohol or other CNS depressants may increase the risk of adverse effects.
PATIENT MANAGEMENT: Limit prescribing opioid analgesics with CNS depressants such as antipsychotics, including ziprasidone, to patients for whom alternatives are ineffective, not tolerated, or would be otherwise inadequate to provide sufficient management of pain.(1) If concurrent use is necessary, limit the dosages and duration of each drug to the minimum possible while achieving the desired clinical effect. If starting a CNS depressant (for an indication other than epilepsy) with an opioid analgesic, prescribe a lower initial dose of the CNS depressant than indicated in the absence of an opioid and titrate based upon clinical response. If an opioid analgesic is indicated in a patient already taking a CNS depressant, prescribe a lower dose of the opioid and titrate based upon clinical response.(1) Respiratory depression can occur at any time during opioid therapy, especially during therapy initiation and following dosage increases. The risk of opioid-related overdose or overdose-related death is increased with higher opioid doses, and this risk persists over the course of therapy. Consider these risks when using concurrently with other agents that may cause CNS depression.(2) Monitor patients receiving concurrent therapy for unusual dizziness or lightheadedness, extreme sleepiness, slowed or difficult breathing, or unresponsiveness.(1) Discuss opioid reversal agents (e.g., naloxone, nalmefene) with all patients when prescribing or renewing an opioid analgesic or medicine to treat opioid use disorder (OUD). Consider prescribing an opioid reversal agent (e.g., naloxone, nalmefene) to patients prescribed medicines to treat OUD or opioid analgesics who are at increased risk of opioid overdose (such as those taking CNS depressants) and when a patient has household members/close contacts at risk for accidental overdose. Discuss the options for obtaining an opioid reversal agent (e.g., prescription, over-the-counter, or as part of a community-based program).(3)
DISCUSSION: A nested case-control study looked at the relationship between antipsychotic use and risk of acute respiratory failure. Current use of antipsychotics was associated with a 2.33-fold increase in risk of respiratory failure compared to no use of antipsychotics. The risk was also significantly increased in patients with recent use of antipsychotics (within the past 15-30 days, OR = 1.79) and recent past use (within 31-90 days OR = 1.41). The risk increased with higher doses and longer duration of use.(4) Between 2002 and 2014, the number of patients receiving an opioid analgesic increased 8%, from 75 million to 81 million patients, and the number of patients receiving a benzodiazepine increased 31%, from 23 million to 30 million patients. During this time, the proportion of patients receiving concurrent therapy increased 31%, from 23 million to 30 million patients.(5) From 2004 to 2011, the rate of nonmedical use-related emergency room visits involving both opioids and benzodiazepines increased from 11 to 34.2 per 100,000 and drug overdose deaths involving both opioids and benzodiazepines increased from 0.6 to 1.7 per 100,000. The proportion of prescription opioid analgesic deaths which also involved benzodiazepines increased from 18% to 31% during this time.(6) A prospective observational cohort study in North Carolina found that the rates of overdose death among patients co-dispensed opioid analgesics and benzodiazepines were 10 times higher than patients receiving opioid analgesics alone.(7) A case-cohort study of VA data from 2004-2009 found that the risk of death from overdose increased with concomitant opioid analgesics and benzodiazepines. Compared to patients with no history of benzodiazepines, patients with a history of benzodiazepine use (hazard ratio [HR] = 2.33) and patients with a current benzodiazepine prescription (HR=3.86) had an increased risk of fatal overdose.(8) A study found that opioid analgesics contributed to 77% of deaths in which benzodiazepines were determined to be a cause of death and that benzodiazepines contributed to 30% of deaths in which opioid analgesics were determined to be a cause of death. This study also found that other CNS depressants (including barbiturates, antipsychotic and neuroleptic drugs, antiepileptic and antiparkinsonian drugs, anesthetics, autonomic nervous system drugs, and muscle relaxants) were contributory to death in many cases where opioid analgesics were also implicated.(9) A study found that alcohol was involved in 18.5% of opioid analgesic abuse-related ED visits and 22.1 percent of opioid analgesic-related deaths.(10)
Contraindications
There is no enhanced messaging for this drug.
There are no contraindication contraindications for this drug.
- Acute asthma attack
- Acute pancreatitis
- Alcohol intoxication
- Alcohol withdrawal delirium
- Cor pulmonale
- Drug abuse
- Exacerbation of chronic obstructive pulmonary disease
- Familial dysautonomia
- History of opioid overdose
- Intracranial hypertension
- Respiratory depression
- Shock
- Sleep apnea
- Systemic mastocytosis
- Adrenocortical insufficiency
- Benign prostatic hyperplasia
- Biliary tract disorder
- Bradycardia
- Constipation
- Debilitation
- Disease of liver
- Hypotension
- Kidney disease with reduction in glomerular filtration rate (GFr)
- Lower seizure threshold
- Seizure disorder
- Toxic psychosis
- Untreated hypothyroidism
- Urethral stricture
- Urinary retention
Adverse reactions
There is no enhanced messaging for this drug.
Less Frequent
- Allergic dermatitis
- Angioedema
- Orthostatic hypotension
- Skin rash
Rare or Very Rare
- Accidental fall
- Acute cognitive impairment
- Adrenocortical insufficiency
- Altered consciousness
- Androgen deficiency
- Asthma
- Bradycardia
- Bronchospastic pulmonary disease
- Drug dependence
- Dyspnea
- Flushing
- Hallucinations
- Laryngeal edema
- Laryngismus
- Pulmonary edema
- Respiratory depression
- Seizure disorder
- Tachycardia
- Urticaria
More Frequent
- Sedation
Less Frequent
- Abdominal pain with cramps
- Anorexia
- Dizziness
- General weakness
- Headache disorder
- Hyperhidrosis
- Hypotension
- Malaise
- Nausea
- Pruritus of skin
- Syncope
- Vertigo
- Vomiting
- Xerostomia
Rare or Very Rare
- Agitation
- Biliary spasm
- Blurred vision
- Delusional disorder
- Depersonalization
- Depression
- Dream disorder
- Drowsy
- Dysarthria
- Dysgeusia
- Dysphagia
- Dysphoric mood
- False sense of well-being
- Fever
- Gastrointestinal irritation
- Heavy feeling
- Hypoesthesia
- Hypoglycemic disorder
- Injection site sequelae
- Insomnia
- Nervousness
- Nightmares
- Non-cardiac chest pain
- Oliguria
- Opioid induced allodynia
- Opioid induced hyperalgesia
- Paresthesia
- Symptoms of anxiety
- Tremor
- Ureteral spasm
- Urinary urgency
- Visual changes
Precautions
No enhanced messaging available.
No enhanced messaging available.
Safe use of nalbuphine during pregnancy (except during labor and delivery) has not been established. Although animal reproduction studies have not revealed teratogenic or embryotoxic effects, nalbuphine should not be administered to pregnant women unless the possible benefits outweigh the potential risks. When nalbuphine is administered during labor and delivery, fetal bradycardia, respiratory depression, apnea, and cyanosis may occur in the neonate. These adverse effects may resolve in some cases following maternal administration of naloxone during labor. However, fetal bradycardia may be severe and prolonged and permanent neurological damage associated with fetal bradycardia has been reported. In addition, a sinusoidal fetal heart rate pattern has been associated with maternal use of nalbuphine. The drug should be used with caution in women during labor and delivery, especially in those delivering premature infants; neonates should be monitored for respiratory depression, apnea, bradycardia, and cardiac arrhythmias.
No enhanced messaging available.
No enhanced messaging available.
ICD codes
| Code | Type | Description |
|---|---|---|
| General anesthesia adjunct | ||
| 3E030FZ | ICD10PCS | Introduction of intracirculatory anesthetic into peripheral vein, open approach |
| 3E033FZ | ICD10PCS | Introduction of intracirculatory anesthetic into peripheral vein, percutaneous approach |
| 3E040FZ | ICD10PCS | Introduction of intracirculatory anesthetic into central vein, open approach |
| 3E043FZ | ICD10PCS | Introduction of intracirculatory anesthetic into central vein, percutaneous approach |
| 3E050FZ | ICD10PCS | Introduction of intracirculatory anesthetic into peripheral artery, open approach |
| 3E053FZ | ICD10PCS | Introduction of intracirculatory anesthetic into peripheral artery, percutaneous approach |
| 3E060FZ | ICD10PCS | Introduction of intracirculatory anesthetic into central artery, open approach |
| 3E063FZ | ICD10PCS | Introduction of intracirculatory anesthetic into central artery, percutaneous approach |
| Labor pain | ||
| O80 | ICD10CM | Encounter for full-term uncomplicated delivery |
| R52 | ICD10CM | Pain, unspecified |
| Local anesthesia adjunct | ||
| 3E00XBZ | ICD10PCS | Introduction of anesthetic agent into skin and mucous membranes, external approach |
| 3E013BZ | ICD10PCS | Introduction of anesthetic agent into subcutaneous tissue, percutaneous approach |
| 3E023BZ | ICD10PCS | Introduction of anesthetic agent into muscle, percutaneous approach |
| 3E093BZ | ICD10PCS | Introduction of anesthetic agent into nose, percutaneous approach |
| 3E097BZ | ICD10PCS | Introduction of anesthetic agent into nose, via natural or artificial opening |
| 3E09XBZ | ICD10PCS | Introduction of anesthetic agent into nose, external approach |
| 3E0B3BZ | ICD10PCS | Introduction of anesthetic agent into ear, percutaneous approach |
| 3E0B7BZ | ICD10PCS | Introduction of anesthetic agent into ear, via natural or artificial opening |
| 3E0BXBZ | ICD10PCS | Introduction of anesthetic agent into ear, external approach |
| 3E0C3BZ | ICD10PCS | Introduction of anesthetic agent into eye, percutaneous approach |
| 3E0C7BZ | ICD10PCS | Introduction of anesthetic agent into eye, via natural or artificial opening |
| 3E0CXBZ | ICD10PCS | Introduction of anesthetic agent into eye, external approach |
| 3E0D3BZ | ICD10PCS | Introduction of anesthetic agent into mouth and pharynx, percutaneous approach |
| 3E0D7BZ | ICD10PCS | Introduction of anesthetic agent into mouth and pharynx, via natural or artificial opening |
| 3E0DXBZ | ICD10PCS | Introduction of anesthetic agent into mouth and pharynx, external approach |
| 3E0E3BZ | ICD10PCS | Introduction of anesthetic agent into products of conception, percutaneous approach |
| 3E0E7BZ | ICD10PCS | Introduction of anesthetic agent into products of conception, via natural or artificial opening |
| 3E0E8BZ | ICD10PCS | Introduction of anesthetic agent into products of conception, via natural or artificial opening endoscopic |
| 3E0F3BZ | ICD10PCS | Introduction of anesthetic agent into respiratory tract, percutaneous approach |
| 3E0F7BZ | ICD10PCS | Introduction of anesthetic agent into respiratory tract, via natural or artificial opening |
| 3E0F8BZ | ICD10PCS | Introduction of anesthetic agent into respiratory tract, via natural or artificial opening endoscopic |
| 3E0G3BZ | ICD10PCS | Introduction of anesthetic agent into upper Gi, percutaneous approach |
| 3E0G7BZ | ICD10PCS | Introduction of anesthetic agent into upper Gi, via natural or artificial opening |
| 3E0G8BZ | ICD10PCS | Introduction of anesthetic agent into upper Gi, via natural or artificial opening endoscopic |
| 3E0H3BZ | ICD10PCS | Introduction of anesthetic agent into lower Gi, percutaneous approach |
| 3E0H7BZ | ICD10PCS | Introduction of anesthetic agent into lower Gi, via natural or artificial opening |
| 3E0H8BZ | ICD10PCS | Introduction of anesthetic agent into lower Gi, via natural or artificial opening endoscopic |
| 3E0J3BZ | ICD10PCS | Introduction of anesthetic agent into biliary and pancreatic tract, percutaneous approach |
| 3E0J7BZ | ICD10PCS | Introduction of anesthetic agent into biliary and pancreatic tract, via natural or artificial opening |
| 3E0J8BZ | ICD10PCS | Introduction of anesthetic agent into biliary and pancreatic tract, via natural or artificial opening endoscopic |
| 3E0K3BZ | ICD10PCS | Introduction of anesthetic agent into genitourinary tract, percutaneous approach |
| 3E0K7BZ | ICD10PCS | Introduction of anesthetic agent into genitourinary tract, via natural or artificial opening |
| 3E0K8BZ | ICD10PCS | Introduction of anesthetic agent into genitourinary tract, via natural or artificial opening endoscopic |
| 3E0L3BZ | ICD10PCS | Introduction of anesthetic agent into pleural cavity, percutaneous approach |
| 3E0M3BZ | ICD10PCS | Introduction of anesthetic agent into peritoneal cavity, percutaneous approach |
| 3E0N3BZ | ICD10PCS | Introduction of anesthetic agent into male reproductive, percutaneous approach |
| 3E0N7BZ | ICD10PCS | Introduction of anesthetic agent into male reproductive, via natural or artificial opening |
| 3E0N8BZ | ICD10PCS | Introduction of anesthetic agent into male reproductive, via natural or artificial opening endoscopic |
| 3E0P3BZ | ICD10PCS | Introduction of anesthetic agent into female reproductive, percutaneous approach |
| 3E0P7BZ | ICD10PCS | Introduction of anesthetic agent into female reproductive, via natural or artificial opening |
| 3E0P8BZ | ICD10PCS | Introduction of anesthetic agent into female reproductive, via natural or artificial opening endoscopic |
| 3E0Q0BZ | ICD10PCS | Introduction of anesthetic agent into cranial cavity and brain, open approach |
| 3E0Q3BZ | ICD10PCS | Introduction of anesthetic agent into cranial cavity and brain, percutaneous approach |
| 3E0R3BZ | ICD10PCS | Introduction of anesthetic agent into spinal canal, percutaneous approach |
| 3E0S3BZ | ICD10PCS | Introduction of anesthetic agent into epidural space, percutaneous approach |
| 3E0T3BZ | ICD10PCS | Introduction of anesthetic agent into peripheral nerves and plexi, percutaneous approach |
| 3E0U3BZ | ICD10PCS | Introduction of anesthetic agent into joints, percutaneous approach |
| 3E0V3BZ | ICD10PCS | Introduction of anesthetic agent into bones, percutaneous approach |
| 3E0W3BZ | ICD10PCS | Introduction of anesthetic agent into lymphatics, percutaneous approach |
| 3E0X3BZ | ICD10PCS | Introduction of anesthetic agent into cranial nerves, percutaneous approach |
| 3E0Y3BZ | ICD10PCS | Introduction of anesthetic agent into pericardial cavity, percutaneous approach |
| Pain | ||
| G43 | ICD10CM | Migraine |
| G43.0 | ICD10CM | Migraine without aura |
| G43.00 | ICD10CM | Migraine without aura, not intractable |
| G43.001 | ICD10CM | Migraine without aura, not intractable, with status migrainosus |
| G43.009 | ICD10CM | Migraine without aura, not intractable, without status migrainosus |
| G43.01 | ICD10CM | Migraine without aura, intractable |
| G43.011 | ICD10CM | Migraine without aura, intractable, with status migrainosus |
| G43.019 | ICD10CM | Migraine without aura, intractable, without status migrainosus |
| G43.1 | ICD10CM | Migraine with aura |
| G43.10 | ICD10CM | Migraine with aura, not intractable |
| G43.101 | ICD10CM | Migraine with aura, not intractable, with status migrainosus |
| G43.109 | ICD10CM | Migraine with aura, not intractable, without status migrainosus |
| G43.11 | ICD10CM | Migraine with aura, intractable |
| G43.111 | ICD10CM | Migraine with aura, intractable, with status migrainosus |
| G43.119 | ICD10CM | Migraine with aura, intractable, without status migrainosus |
| G43.4 | ICD10CM | Hemiplegic migraine |
| G43.40 | ICD10CM | Hemiplegic migraine, not intractable |
| G43.401 | ICD10CM | Hemiplegic migraine, not intractable, with status migrainosus |
| G43.409 | ICD10CM | Hemiplegic migraine, not intractable, without status migrainosus |
| G43.41 | ICD10CM | Hemiplegic migraine, intractable |
| G43.411 | ICD10CM | Hemiplegic migraine, intractable, with status migrainosus |
| G43.419 | ICD10CM | Hemiplegic migraine, intractable, without status migrainosus |
| G43.5 | ICD10CM | Persistent migraine aura without cerebral infarction |
| G43.50 | ICD10CM | Persistent migraine aura without cerebral infarction, not intractable |
| G43.501 | ICD10CM | Persistent migraine aura without cerebral infarction, not intractable, with status migrainosus |
| G43.509 | ICD10CM | Persistent migraine aura without cerebral infarction, not intractable, without status migrainosus |
| G43.51 | ICD10CM | Persistent migraine aura without cerebral infarction, intractable |
| G43.511 | ICD10CM | Persistent migraine aura without cerebral infarction, intractable, with status migrainosus |
| G43.519 | ICD10CM | Persistent migraine aura without cerebral infarction, intractable, without status migrainosus |
| G43.6 | ICD10CM | Persistent migraine aura with cerebral infarction |
| G43.60 | ICD10CM | Persistent migraine aura with cerebral infarction, not intractable |
| G43.601 | ICD10CM | Persistent migraine aura with cerebral infarction, not intractable, with status migrainosus |
| G43.609 | ICD10CM | Persistent migraine aura with cerebral infarction, not intractable, without status migrainosus |
| G43.61 | ICD10CM | Persistent migraine aura with cerebral infarction, intractable |
| G43.611 | ICD10CM | Persistent migraine aura with cerebral infarction, intractable, with status migrainosus |
| G43.619 | ICD10CM | Persistent migraine aura with cerebral infarction, intractable, without status migrainosus |
| G43.7 | ICD10CM | Chronic migraine without aura |
| G43.70 | ICD10CM | Chronic migraine without aura, not intractable |
| G43.701 | ICD10CM | Chronic migraine without aura, not intractable, with status migrainosus |
| G43.709 | ICD10CM | Chronic migraine without aura, not intractable, without status migrainosus |
| G43.71 | ICD10CM | Chronic migraine without aura, intractable |
| G43.711 | ICD10CM | Chronic migraine without aura, intractable, with status migrainosus |
| G43.719 | ICD10CM | Chronic migraine without aura, intractable, without status migrainosus |
| G43.8 | ICD10CM | Other migraine |
| G43.80 | ICD10CM | Other migraine, not intractable |
| G43.801 | ICD10CM | Other migraine, not intractable, with status migrainosus |
| G43.809 | ICD10CM | Other migraine, not intractable, without status migrainosus |
| G43.81 | ICD10CM | Other migraine, intractable |
| G43.811 | ICD10CM | Other migraine, intractable, with status migrainosus |
| G43.819 | ICD10CM | Other migraine, intractable, without status migrainosus |
| G43.82 | ICD10CM | Menstrual migraine, not intractable |
| G43.821 | ICD10CM | Menstrual migraine, not intractable, with status migrainosus |
| G43.829 | ICD10CM | Menstrual migraine, not intractable, without status migrainosus |
| G43.83 | ICD10CM | Menstrual migraine, intractable |
| G43.831 | ICD10CM | Menstrual migraine, intractable, with status migrainosus |
| G43.839 | ICD10CM | Menstrual migraine, intractable, without status migrainosus |
| G43.9 | ICD10CM | Migraine, unspecified |
| G43.90 | ICD10CM | Migraine, unspecified, not intractable |
| G43.901 | ICD10CM | Migraine, unspecified, not intractable, with status migrainosus |
| G43.909 | ICD10CM | Migraine, unspecified, not intractable, without status migrainosus |
| G43.91 | ICD10CM | Migraine, unspecified, intractable |
| G43.911 | ICD10CM | Migraine, unspecified, intractable, with status migrainosus |
| G43.919 | ICD10CM | Migraine, unspecified, intractable, without status migrainosus |
| G43.B | ICD10CM | Ophthalmoplegic migraine |
| G43.B0 | ICD10CM | Ophthalmoplegic migraine, not intractable |
| G43.B1 | ICD10CM | Ophthalmoplegic migraine, intractable |
| G43.C | ICD10CM | Periodic headache syndromes in child or adult |
| G43.C0 | ICD10CM | Periodic headache syndromes in child or adult, not intractable |
| G43.C1 | ICD10CM | Periodic headache syndromes in child or adult, intractable |
| G43.D | ICD10CM | Abdominal migraine |
| G43.D0 | ICD10CM | Abdominal migraine, not intractable |
| G43.D1 | ICD10CM | Abdominal migraine, intractable |
| G43.E | ICD10CM | Chronic migraine with aura |
| G43.E0 | ICD10CM | Chronic migraine with aura, not intractable |
| G43.E01 | ICD10CM | Chronic migraine with aura, not intractable, with status migrainosus |
| G43.E09 | ICD10CM | Chronic migraine with aura, not intractable, without status migrainosus |
| G43.E1 | ICD10CM | Chronic migraine with aura, intractable |
| G43.E11 | ICD10CM | Chronic migraine with aura, intractable, with status migrainosus |
| G43.E19 | ICD10CM | Chronic migraine with aura, intractable, without status migrainosus |
| G44 | ICD10CM | Other headache syndromes |
| G44.00 | ICD10CM | Cluster headache syndrome, unspecified |
| G44.001 | ICD10CM | Cluster headache syndrome, unspecified, intractable |
| G44.009 | ICD10CM | Cluster headache syndrome, unspecified, not intractable |
| G44.01 | ICD10CM | Episodic cluster headache |
| G44.011 | ICD10CM | Episodic cluster headache, intractable |
| G44.019 | ICD10CM | Episodic cluster headache, not intractable |
| G44.02 | ICD10CM | Chronic cluster headache |
| G44.021 | ICD10CM | Chronic cluster headache, intractable |
| G44.029 | ICD10CM | Chronic cluster headache, not intractable |
| G44.03 | ICD10CM | Episodic paroxysmal hemicrania |
| G44.031 | ICD10CM | Episodic paroxysmal hemicrania, intractable |
| G44.039 | ICD10CM | Episodic paroxysmal hemicrania, not intractable |
| G44.04 | ICD10CM | Chronic paroxysmal hemicrania |
| G44.041 | ICD10CM | Chronic paroxysmal hemicrania, intractable |
| G44.049 | ICD10CM | Chronic paroxysmal hemicrania, not intractable |
| G44.05 | ICD10CM | Short lasting unilateral neuralgiform headache with conjunctival injection and tearing (SUNCt) |
| G44.051 | ICD10CM | Short lasting unilateral neuralgiform headache with conjunctival injection and tearing (SUNCt), intractable |
| G44.059 | ICD10CM | Short lasting unilateral neuralgiform headache with conjunctival injection and tearing (SUNCt), not intractable |
| G44.1 | ICD10CM | Vascular headache, not elsewhere classified |
| G44.2 | ICD10CM | Tension-type headache |
| G44.20 | ICD10CM | Tension-type headache, unspecified |
| G44.201 | ICD10CM | Tension-type headache, unspecified, intractable |
| G44.209 | ICD10CM | Tension-type headache, unspecified, not intractable |
| G44.21 | ICD10CM | Episodic tension-type headache |
| G44.211 | ICD10CM | Episodic tension-type headache, intractable |
| G44.219 | ICD10CM | Episodic tension-type headache, not intractable |
| G44.22 | ICD10CM | Chronic tension-type headache |
| G44.221 | ICD10CM | Chronic tension-type headache, intractable |
| G44.229 | ICD10CM | Chronic tension-type headache, not intractable |
| G44.3 | ICD10CM | Post-traumatic headache |
| G44.30 | ICD10CM | Post-traumatic headache, unspecified |
| G44.301 | ICD10CM | Post-traumatic headache, unspecified, intractable |
| G44.309 | ICD10CM | Post-traumatic headache, unspecified, not intractable |
| G44.31 | ICD10CM | Acute post-traumatic headache |
| G44.311 | ICD10CM | Acute post-traumatic headache, intractable |
| G44.319 | ICD10CM | Acute post-traumatic headache, not intractable |
| G44.32 | ICD10CM | Chronic post-traumatic headache |
| G44.321 | ICD10CM | Chronic post-traumatic headache, intractable |
| G44.329 | ICD10CM | Chronic post-traumatic headache, not intractable |
| G44.4 | ICD10CM | Drug-induced headache, not elsewhere classified |
| G44.40 | ICD10CM | Drug-induced headache, not elsewhere classified, not intractable |
| G44.41 | ICD10CM | Drug-induced headache, not elsewhere classified, intractable |
| G44.5 | ICD10CM | Complicated headache syndromes |
| G44.51 | ICD10CM | Hemicrania continua |
| G44.52 | ICD10CM | New daily persistent headache (NDPh) |
| G44.53 | ICD10CM | Primary thunderclap headache |
| G44.59 | ICD10CM | Other complicated headache syndrome |
| G44.8 | ICD10CM | Other specified headache syndromes |
| G44.81 | ICD10CM | Hypnic headache |
| G44.82 | ICD10CM | Headache associated with sexual activity |
| G44.83 | ICD10CM | Primary cough headache |
| G44.84 | ICD10CM | Primary exertional headache |
| G44.85 | ICD10CM | Primary stabbing headache |
| G44.86 | ICD10CM | Cervicogenic headache |
| G44.89 | ICD10CM | Other headache syndrome |
| G50.1 | ICD10CM | Atypical facial pain |
| G89 | ICD10CM | Pain, not elsewhere classified |
| G89.0 | ICD10CM | Central pain syndrome |
| G89.1 | ICD10CM | Acute pain, not elsewhere classified |
| G89.11 | ICD10CM | Acute pain due to trauma |
| G89.12 | ICD10CM | Acute post-thoracotomy pain |
| G89.18 | ICD10CM | Other acute postprocedural pain |
| G89.2 | ICD10CM | Chronic pain, not elsewhere classified |
| G89.21 | ICD10CM | Chronic pain due to trauma |
| G89.22 | ICD10CM | Chronic post-thoracotomy pain |
| G89.28 | ICD10CM | Other chronic postprocedural pain |
| G89.29 | ICD10CM | Other chronic pain |
| G89.3 | ICD10CM | Neoplasm related pain (acute) (chronic) |
| G89.4 | ICD10CM | Chronic pain syndrome |
| G90.5 | ICD10CM | Complex regional pain syndrome I (CRPS i) |
| G90.50 | ICD10CM | Complex regional pain syndrome i, unspecified |
| G90.51 | ICD10CM | Complex regional pain syndrome I of upper limb |
| G90.511 | ICD10CM | Complex regional pain syndrome I of right upper limb |
| G90.512 | ICD10CM | Complex regional pain syndrome I of left upper limb |
| G90.513 | ICD10CM | Complex regional pain syndrome I of upper limb, bilateral |
| G90.519 | ICD10CM | Complex regional pain syndrome I of unspecified upper limb |
| G90.52 | ICD10CM | Complex regional pain syndrome I of lower limb |
| G90.521 | ICD10CM | Complex regional pain syndrome I of right lower limb |
| G90.522 | ICD10CM | Complex regional pain syndrome I of left lower limb |
| G90.523 | ICD10CM | Complex regional pain syndrome I of lower limb, bilateral |
| G90.529 | ICD10CM | Complex regional pain syndrome I of unspecified lower limb |
| G90.59 | ICD10CM | Complex regional pain syndrome I of other specified site |
| H57.1 | ICD10CM | Ocular pain |
| H57.10 | ICD10CM | Ocular pain, unspecified eye |
| H57.11 | ICD10CM | Ocular pain, right eye |
| H57.12 | ICD10CM | Ocular pain, left eye |
| H57.13 | ICD10CM | Ocular pain, bilateral |
| H92 | ICD10CM | Otalgia and effusion of ear |
| H92.0 | ICD10CM | Otalgia |
| H92.01 | ICD10CM | Otalgia, right ear |
| H92.02 | ICD10CM | Otalgia, left ear |
| H92.03 | ICD10CM | Otalgia, bilateral |
| H92.09 | ICD10CM | Otalgia, unspecified ear |
| K14.6 | ICD10CM | Glossodynia |
| M25.5 | ICD10CM | Pain in joint |
| M25.50 | ICD10CM | Pain in unspecified joint |
| M25.51 | ICD10CM | Pain in shoulder |
| M25.511 | ICD10CM | Pain in right shoulder |
| M25.512 | ICD10CM | Pain in left shoulder |
| M25.519 | ICD10CM | Pain in unspecified shoulder |
| M25.52 | ICD10CM | Pain in elbow |
| M25.521 | ICD10CM | Pain in right elbow |
| M25.522 | ICD10CM | Pain in left elbow |
| M25.529 | ICD10CM | Pain in unspecified elbow |
| M25.53 | ICD10CM | Pain in wrist |
| M25.531 | ICD10CM | Pain in right wrist |
| M25.532 | ICD10CM | Pain in left wrist |
| M25.539 | ICD10CM | Pain in unspecified wrist |
| M25.54 | ICD10CM | Pain in joints of hand |
| M25.541 | ICD10CM | Pain in joints of right hand |
| M25.542 | ICD10CM | Pain in joints of left hand |
| M25.549 | ICD10CM | Pain in joints of unspecified hand |
| M25.55 | ICD10CM | Pain in hip |
| M25.551 | ICD10CM | Pain in right hip |
| M25.552 | ICD10CM | Pain in left hip |
| M25.559 | ICD10CM | Pain in unspecified hip |
| M25.56 | ICD10CM | Pain in knee |
| M25.561 | ICD10CM | Pain in right knee |
| M25.562 | ICD10CM | Pain in left knee |
| M25.569 | ICD10CM | Pain in unspecified knee |
| M25.57 | ICD10CM | Pain in ankle and joints of foot |
| M25.571 | ICD10CM | Pain in right ankle and joints of right foot |
| M25.572 | ICD10CM | Pain in left ankle and joints of left foot |
| M25.579 | ICD10CM | Pain in unspecified ankle and joints of unspecified foot |
| M25.59 | ICD10CM | Pain in other specified joint |
| M26.62 | ICD10CM | Arthralgia of temporomandibular joint |
| M26.621 | ICD10CM | Arthralgia of right temporomandibular joint |
| M26.622 | ICD10CM | Arthralgia of left temporomandibular joint |
| M26.623 | ICD10CM | Arthralgia of bilateral temporomandibular joint |
| M26.629 | ICD10CM | Arthralgia of temporomandibular joint, unspecified side |
| M54 | ICD10CM | Dorsalgia |
| M54.2 | ICD10CM | Cervicalgia |
| M54.4 | ICD10CM | Lumbago with sciatica |
| M54.40 | ICD10CM | Lumbago with sciatica, unspecified side |
| M54.41 | ICD10CM | Lumbago with sciatica, right side |
| M54.42 | ICD10CM | Lumbago with sciatica, left side |
| M54.5 | ICD10CM | Low back pain |
| M54.50 | ICD10CM | Low back pain, unspecified |
| M54.51 | ICD10CM | Vertebrogenic low back pain |
| M54.59 | ICD10CM | Other low back pain |
| M54.6 | ICD10CM | Pain in thoracic spine |
| M54.8 | ICD10CM | Other dorsalgia |
| M54.89 | ICD10CM | Other dorsalgia |
| M54.9 | ICD10CM | Dorsalgia, unspecified |
| M77.4 | ICD10CM | Metatarsalgia |
| M77.40 | ICD10CM | Metatarsalgia, unspecified foot |
| M77.41 | ICD10CM | Metatarsalgia, right foot |
| M77.42 | ICD10CM | Metatarsalgia, left foot |
| M79.1 | ICD10CM | Myalgia |
| M79.10 | ICD10CM | Myalgia, unspecified site |
| M79.11 | ICD10CM | Myalgia of mastication muscle |
| M79.12 | ICD10CM | Myalgia of auxiliary muscles, head and neck |
| M79.18 | ICD10CM | Myalgia, other site |
| M79.6 | ICD10CM | Pain in limb, hand, foot, fingers and toes |
| M79.60 | ICD10CM | Pain in limb, unspecified |
| M79.601 | ICD10CM | Pain in right arm |
| M79.602 | ICD10CM | Pain in left arm |
| M79.603 | ICD10CM | Pain in arm, unspecified |
| M79.604 | ICD10CM | Pain in right leg |
| M79.605 | ICD10CM | Pain in left leg |
| M79.606 | ICD10CM | Pain in leg, unspecified |
| M79.609 | ICD10CM | Pain in unspecified limb |
| M79.62 | ICD10CM | Pain in upper arm |
| M79.621 | ICD10CM | Pain in right upper arm |
| M79.622 | ICD10CM | Pain in left upper arm |
| M79.629 | ICD10CM | Pain in unspecified upper arm |
| M79.63 | ICD10CM | Pain in forearm |
| M79.631 | ICD10CM | Pain in right forearm |
| M79.632 | ICD10CM | Pain in left forearm |
| M79.639 | ICD10CM | Pain in unspecified forearm |
| M79.64 | ICD10CM | Pain in hand and fingers |
| M79.641 | ICD10CM | Pain in right hand |
| M79.642 | ICD10CM | Pain in left hand |
| M79.643 | ICD10CM | Pain in unspecified hand |
| M79.644 | ICD10CM | Pain in right finger(s) |
| M79.645 | ICD10CM | Pain in left finger(s) |
| M79.646 | ICD10CM | Pain in unspecified finger(s) |
| M79.65 | ICD10CM | Pain in thigh |
| M79.651 | ICD10CM | Pain in right thigh |
| M79.652 | ICD10CM | Pain in left thigh |
| M79.659 | ICD10CM | Pain in unspecified thigh |
| M79.66 | ICD10CM | Pain in lower leg |
| M79.661 | ICD10CM | Pain in right lower leg |
| M79.662 | ICD10CM | Pain in left lower leg |
| M79.669 | ICD10CM | Pain in unspecified lower leg |
| M79.67 | ICD10CM | Pain in foot and toes |
| M79.671 | ICD10CM | Pain in right foot |
| M79.672 | ICD10CM | Pain in left foot |
| M79.673 | ICD10CM | Pain in unspecified foot |
| M79.674 | ICD10CM | Pain in right toe(s) |
| M79.675 | ICD10CM | Pain in left toe(s) |
| M79.676 | ICD10CM | Pain in unspecified toe(s) |
| N23 | ICD10CM | Unspecified renal colic |
| N64.4 | ICD10CM | Mastodynia |
| N94 | ICD10CM | Pain and other conditions associated with female genital organs and menstrual cycle |
| N94.0 | ICD10CM | Mittelschmerz |
| N94.3 | ICD10CM | Premenstrual tension syndrome |
| N94.4 | ICD10CM | Primary dysmenorrhea |
| N94.5 | ICD10CM | Secondary dysmenorrhea |
| N94.6 | ICD10CM | Dysmenorrhea, unspecified |
| R07 | ICD10CM | Pain in throat and chest |
| R07.0 | ICD10CM | Pain in throat |
| R07.1 | ICD10CM | Chest pain on breathing |
| R07.2 | ICD10CM | Precordial pain |
| R07.81 | ICD10CM | Pleurodynia |
| R07.82 | ICD10CM | Intercostal pain |
| R07.89 | ICD10CM | Other chest pain |
| R07.9 | ICD10CM | Chest pain, unspecified |
| R10 | ICD10CM | Abdominal and pelvic pain |
| R10.0 | ICD10CM | Acute abdomen |
| R10.1 | ICD10CM | Pain localized to upper abdomen |
| R10.10 | ICD10CM | Upper abdominal pain, unspecified |
| R10.11 | ICD10CM | Right upper quadrant pain |
| R10.12 | ICD10CM | Left upper quadrant pain |
| R10.2 | ICD10CM | Pelvic and perineal pain |
| R10.20 | ICD10CM | Pelvic and perineal pain unspecified side |
| R10.21 | ICD10CM | Pelvic and perineal pain right side |
| R10.22 | ICD10CM | Pelvic and perineal pain left side |
| R10.23 | ICD10CM | Pelvic and perineal pain bilateral |
| R10.24 | ICD10CM | Suprapubic pain |
| R10.3 | ICD10CM | Pain localized to other parts of lower abdomen |
| R10.30 | ICD10CM | Lower abdominal pain, unspecified |
| R10.31 | ICD10CM | Right lower quadrant pain |
| R10.32 | ICD10CM | Left lower quadrant pain |
| R10.33 | ICD10CM | Periumbilical pain |
| R10.8 | ICD10CM | Other abdominal pain |
| R10.83 | ICD10CM | Colic |
| R10.84 | ICD10CM | Generalized abdominal pain |
| R10.85 | ICD10CM | Abdominal pain of multiple sites |
| R10.9 | ICD10CM | Unspecified abdominal pain |
| R10.A | ICD10CM | Pain localized to flank |
| R10.A0 | ICD10CM | Flank pain, unspecified side |
| R10.A1 | ICD10CM | Flank pain, right side |
| R10.A2 | ICD10CM | Flank pain, left side |
| R10.A3 | ICD10CM | Flank pain, bilateral |
| R51 | ICD10CM | Headache |
| R51.0 | ICD10CM | Headache with orthostatic component, not elsewhere classified |
| R51.9 | ICD10CM | Headache, unspecified |
| R52 | ICD10CM | Pain, unspecified |
| R68.84 | ICD10CM | Jaw pain |
| T82.84 | ICD10CM | Pain due to cardiac and vascular prosthetic devices, implants and grafts |
| T82.847 | ICD10CM | Pain due to cardiac prosthetic devices, implants and grafts |
| T82.847A | ICD10CM | Pain due to cardiac prosthetic devices, implants and grafts, initial encounter |
| T82.847D | ICD10CM | Pain due to cardiac prosthetic devices, implants and grafts, subsequent encounter |
| T82.848 | ICD10CM | Pain due to vascular prosthetic devices, implants and grafts |
| T82.848A | ICD10CM | Pain due to vascular prosthetic devices, implants and grafts, initial encounter |
| T82.848D | ICD10CM | Pain due to vascular prosthetic devices, implants and grafts, subsequent encounter |
| T83.84 | ICD10CM | Pain due to genitourinary prosthetic devices, implants and grafts |
| T83.84xA | ICD10CM | Pain due to genitourinary prosthetic devices, implants and grafts, initial encounter |
| T83.84xD | ICD10CM | Pain due to genitourinary prosthetic devices, implants and grafts, subsequent encounter |
| T84.84 | ICD10CM | Pain due to internal orthopedic prosthetic devices, implants and grafts |
| T84.84xA | ICD10CM | Pain due to internal orthopedic prosthetic devices, implants and grafts, initial encounter |
| T84.84xD | ICD10CM | Pain due to internal orthopedic prosthetic devices, implants and grafts, subsequent encounter |
| T85.84 | ICD10CM | Pain due to internal prosthetic devices, implants and grafts, not elsewhere classified |
| T85.840 | ICD10CM | Pain due to nervous system prosthetic devices, implants and grafts |
| T85.840A | ICD10CM | Pain due to nervous system prosthetic devices, implants and grafts, initial encounter |
| T85.840D | ICD10CM | Pain due to nervous system prosthetic devices, implants and grafts, subsequent encounter |
| T85.848 | ICD10CM | Pain due to other internal prosthetic devices, implants and grafts |
| T85.848A | ICD10CM | Pain due to other internal prosthetic devices, implants and grafts, initial encounter |
| T85.848D | ICD10CM | Pain due to other internal prosthetic devices, implants and grafts, subsequent encounter |
ICD code information from First Databank (FDB).
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Last reviewed · Source: First Databank (FDB) drug data
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