Choice of medication for ADHD or ADHD with comorbidity
“Treating ADHD is very easy. Treating ADHD well is very difficult.”
Choosing the most individually effective medication for ADHD and its optimal dosage is a challenge. Although there are several points of reference for guidance, there are no biomarkers that can predict the response to ADHD medication.1 In addition, the individual characteristics of each person with ADHD often put all empirical values to the test. Since ADHD is a syndrome, ADHD symptoms can arise from a large number of different causes. Consequently, there is no one-size-fits-all treatment. If necessary, a large number of different options must be tried with great persistence for a person with ADHD.
ADHD medications can be divided into two categories: Stimulants and non-stimulants. Stimulants such as methylphenidate (MPH) and amphetamine medication (AMP) have the advantage of having a high Effect size with low side effects. There is no other class of medication in psychiatry with such a high Effect size.234 They take effect from the first day of use and can be discontinued at any time without withdrawal symptoms. However, stimulants can impair emotional perception in case of overdose and are BtM. Non-stimulants such as atomoxetine and guanfacine have the advantage of a longer duration of action, have a better effect on the subjectively most stressful ADHD symptom of emotional dysregulation and have no dampening effect on emotional perception. However, their Effect size is significantly lower and the side effects are noticeably higher. They are also more difficult to dose than stimulants due to the long duration until the effect occurs and the long half-life.
Furthermore, specific problem cases and comorbidities must be taken into account when choosing medication. For example, AMP, atomoxetine or guanfacine can be used in patients who do not respond to various MPH preparations. If stimulants cause an impairment of emotional perception despite avoiding too high a dosage, they can be replaced by atomoxetine or guanfacine or dosed lower and combined with these. A combination medication of stimulants and atomoxetine can improve drive and at the same time reduce emotional dysregulation. Certain medications have particular benefits for tic disorders, anxiety disorders, substance abuse and other comorbidities.
The modes of action of the various medications differ in terms of their binding affinity to transporters and their effects on dopamine and noradrenaline in different regions of the brain. It is important to customize the right medication to achieve the best possible effect with minimal side effects.
In the US, medicated children with ADHD were most likely to receive stimulants only (60% to 67%), followed by a combination of stimulants and non-stimulants (13% to 15%), a combination of stimulants and antidepressants (6% to 9%), and finally non-stimulants only (5% to 9%).5
When dosing, the often increased sensitivity of people with ADHD to even small differences in dose or to different effects of different preparations of the same active ingredient must be taken into account. This goes so far that even the replacement of a generic with a supposedly bioequivalent preparation from another manufacturer can result in considerable differences or even a loss of efficacy. This applies to sustained release and immediate release stimulants as well as non-stimulants. It is not the rule, but, as we know from the ADHD forum of ADxS.org, it is far more common than previously assumed. More on this under Dosing of medication for ADHD.
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
- 1. Advantages and disadvantages of various ADHD medications
- 2. Choice of medication without specific problem cases
- 3. Medication selection according to specific problem cases
- 3.1. Responding
- 3.2. Treatment of specific ADHD symptoms
- 3.3. Avoidance of specific side effects of ADHD medication
- 3.4. Choice of medication for comorbidities with ADHD
- 3.4.1. Anxiety disorder comorbid with ADHD
- 3.4.2. Depression comorbid with ADHD
- 3.4.2.1. Stimulant monotherapy as a first step in comorbid depression and ADHD
- 3.4.2.2. Atomoxetine as monotherapy
- 3.4.2.3. Guanfacine for ADHD with comorbid depression
- 3.4.2.4. Bupropion
- 3.4.2.5. Combination medication for comorbid depression and ADHD
- 3.4.2.5.1. Atomoxetine and fluoxetine
- 3.4.2.5.2. Atomoxetine and sertraline
- 3.4.2.5.3. SSRI and MPH for comorbid depression with ADHD
- 3.4.2.5.4. Escitalopram and MPH for comorbid depression with ADHD
- 3.4.2.5.5. Fluoxetine and MPH for comorbid depression and ADHD
- 3.4.2.5.6. Selegiline and lisdexamfetamine for comorbid depression
- 3.4.2.5.7. Duloxetine and stimulants for comorbid depression
- 3.4.2.5.8. Venlafaxine and stimulants for comorbid depression
- 3.4.2.5.9. MAO inhibitors and stimulants for comorbid depression
- 3.4.2.5.10. Lamotrigine for ADHD with comorbid depression
- 3.4.2.5.11. Comorbid depression with specific manifestations
- 3.4.2.5.11.1. Comorbid depression with concentration and drive disorders
- 3.4.2.5.11.2. Comorbid depression with severe drive disorder
- 3.4.2.5.11.3. Comorbid depression with obsessive-compulsive disorder
- 3.4.2.5.11.4. Comorbid depression with irritability
- 3.4.2.5.11.5. Comorbid depression with irritability
- 3.4.4. Bipolar comorbid with ADHD
- 3.4.5. Mood swings comorbid with ADHD
- 3.4.6. Borderline comorbid with ADHD
- 3.4.7. Disruptive Mood Dysregulation Disorder (DMDD) comorbid with ADHD
- 3.4.8. Irritability with ADHD
- 3.4.9. Aggression comorbid with ADHD
- 3.4.10. Oppositional defiant behavior comorbid with ADHD
- 3.4.11. Conduct disorder (CD) comorbid with ADHD
- 3.4.12. ASD comorbid with ADHD
- 3.4.13. Comorbid strong irritability / increased sensitivity
- 3.4.14. Tic disorders comorbid with ADHD
- 3.4.15. Obsessive-compulsive disorder comorbid with ADHD
- 3.4.16. Schizophrenia and psychosis comorbid with ADHD
- 3.4.17. Substance abuse / addiction comorbid with ADHD
- 3.4.18. Eating disorders comorbid with ADHD
- 3.4.19. Obesity
- 3.4.20. Chronic pain comorbid with ADHD
- 3.4.21. Enuresis comorbid with ADHD
- 3.4.22. Sleep problems and ADHD
- 3.4.23. Bruxism (teeth grinding) with ADHD
- 3.4.24. CDS / SCT (cognitive disengagement syndrome, sluggish cognitive tempo)
- 3.4.25. Histamine intolerance / mast cell activation syndrome
- 3.4.26. Gluten intolerance
- 3.4.27. Lactose intolerance
- 3.4.28. Fructose intolerance
- 3.4.29. Sorbitol intolerance
- 3.4.30. Down syndrome
- 3.4.31. Emotional dysregulation
- 3.4.32. High blood pressure comorbid with ADHD
- 3.4.33. Heart problems comorbid with ADHD
- 3.4.34. Epilepsy comorbid with ADHD
- 3.4.35. Dissociative conditions comorbid with ADHD
- 3.4.36. Raynaud
- 3.4.37. Seniors with ADHD
- 3.4.38. Mental disability
- 4. Choice of medication under further conditions
- 5. Different modes of action of ADHD medication
- 6. Duration of action of various ADHD medications
- 7. Approval status of ADHD medications
1. Advantages and disadvantages of various ADHD medications
1.1. Stimulants
- Benefits (common benefits of stimulants)
- Stimulants are methylphenidate and amphetamine drugs.
- See under Methylphenidate (MPH) for ADHD
- See under Amphetamine medication for ADHD
- Stimulants for ADHD have a special position in psychiatric medication as a whole: no other class of medication has such a high Effect size with such low side effects 2
- It is advisable to compare the package inserts for aspirin or antidepressants and methylphenidate
- Stimulants have been used as ADHD medications for many decades, longer than barely any other class of medication
- Stimulants work from the first day of use
- Stimulants can be discontinued at any time without the risk of withdrawal symptoms (in contrast to antidepressants, some of which can cause dependence and massive side effects from overdosing)
- Stimulants are methylphenidate and amphetamine drugs.
- Disadvantages (common disadvantages of stimulants
- Impairment of emotional perception in approx. 20% of people with ADHD due to the dampening effect of stimulants on the limbic system
- Causes: Hypersensitivity or overdose
- In this case, consider combination medication of atomoxetine and MPH or AMP (at a lower dosage in each case compared to monotherapy)
- BtM mandatory, because theoretical possibility of abuse
- No risk of abuse if taken correctly (oral dose of medication)
- There are better “spinning” things for less money and with less effort at every station and in every disco loo
- Nevertheless possible stimulus for drug use in persons with ADHD with acute or previous amphetamine addiction; then rather test atomoxetine and guanfacine
- Stimulants reduce the likelihood of developing an addiction,67 they certainly do not increase it.89
Treating ADHD with stimulants as early as possible reduced the risk of developing addiction in adulthood. For every year that stimulant treatment began later, the risk of developing addiction in adulthood increased 1.46-fold.10
- Impairment of emotional perception in approx. 20% of people with ADHD due to the dampening effect of stimulants on the limbic system
- Methylphenidate (MPH)
- Advantages:
- Particularly good drive boost
- Immediate release short duration of action (2.5 - 3 hours)
- Disadvantages:
- Nonresponder rate approx. 30 %
- MPH non-responding not congruent with AMP non-responding
- Nonresponder rate approx. 30 %
- Advantages:
- Amphetamine medication (AMP)
- Advantages
- More mood-balancing than MPH
- Slightly better Effect size and slightly lower side effects than MPH, especially in adults
- Disadvantages:
- Nonresponder rate approx. 20 %
- AMP non-responding not congruent with MPH non-responding
- Nonresponder rate approx. 20 %
- Advantages
1.2. Non-stimulants
- Atomoxetine (ATX)
- Advantages
- Mirror medication (works (almost) the whole day)
- No impairment of emotional perception, as there is no dampening effect on the limbic system
- Disadvantages
- Difficult to dose
- Complete effect only after 4 to 8 weeks
- Sometimes very narrow range between underdosing and overdosing
- Significantly higher side effects than stimulants
- Lower Effect size than stimulants
- Should be dosed out slowly
- More on atomoxetine at Atomoxetine for ADHD
- Advantages
- Guanfacine
- Advantages
- Good effect in comorbid tic disorders
- Antihypertensive - helpful for high blood pressure
- Disadvantages
- Works less frequently in adults
- No approval for adults in Germany (off-label)
- Lower Effect size than stimulants
- Higher side effects than stimulants
- More about guanfacine at Guanfacine for ADHD
- Advantages
1.3. Suitability in tabular form
General physical contraindications
| General physical contraindications | LDX/D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|
| Hypersensitivity to the active ingredient or any of the other ingredients | — | — | — | — | — | |
| Glaucoma | — | — (narrow-angle glaucoma) | — | |||
| Hyperthyroidism or thyrotoxicosis | — | — | ||||
| Pheochromocytoma | — | — | ||||
| Stomach not acidic enough / too alkaline, pH value above 5.5 | — | |||||
| Tumor in the central nervous system | — | |||||
| severe liver cirrhosis | — | |||||
| Histamine intolerance | — | — | — | — | — | *** |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
+ suitable
++ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
*** Viloxazine appears to be the only ADHD drug that does not increase histamine
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
Cardiovascular problems
| Cardiovascular problems: | LDX/D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|
| Symptomatic cardiovascular disease | — | — | ||||
| Advanced arteriosclerosis | — | |||||
| Moderate to severe hypertension | — | —** | ++** | |||
| Serious cardiovascular or cerebrovascular disease in which a clinically significant increase in blood pressure or heart rate could worsen the condition, e.g.: severe hypertension, heart failure, arterial occlusive disease, angina pectoris, haemodynamically relevant congenital heart defect, cardiomyopathies, myocardial infarction, potentially life-threatening arrhythmias, diseases caused by altered ion channel function | (–)** | — | (–)** | ++** | ||
| Cerebrovascular diseases (e.g. cerebral aneurysms, vascular abnormalities, vasculitis or stroke) | — | |||||
| Moderate to severe hypotension | suitable | suitable | suitable | o |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
+ suitable
++ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
Effect size on cardiovascular factors (comparison pre/post):13
- Diastolic blood pressure
- MPH: not statistically significant
- AMP: 0.16
- reduced effect with prolonged use
- ATX: 0.22
- Systolic blood pressure
- MPH: 0.25
- presumably higher Effect size with immediate release MPH than with sustained release MPH
- AMP: 0.09
- ATX: 0.16
- MPH: 0.25
- Heart rate
- MPH: not statistically significant
- AMP: 0.37
- ATX: 0.43
12.6% of the subjects reported other cardiovascular effects. 2 % discontinued the medication due to cardiovascular effects.
In the majority of patients, the cardiovascular effects resolved spontaneously or by changing the dose of medication, or were not clinically relevant.
There were no statistically significant differences between the drug treatments in terms of the severity of cardiovascular effects.
Note: Unfortunately, the meta-analysis did not take into account whether subjects were taking caffeine at the same time. We suspect that restricting the study to subjects who were given caffeine-free medication would show a drastically lower rate of side effects. It is regrettable that this elementary factor is still not taken into account with the necessary consistency.
Addiction problems
| Addiction problems: | LDX | D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|---|
| Alcohol addiction, acute | +**** | o** | +**** | o** | ++**** | o** | |
| Amphetamine addiction, acute | —** | —** | ++**** | —** | ++**** | ||
| Amphetamine addiction, long ago | (–)** | (–)** | ++**** | (–)** | ++**** | ||
| THC addiction | +**** | o** | ++**** | o** | ++**** | ||
| a planned withdrawal, which may be accompanied by an increased tendency to convulsions | — | ||||||
| Alcohol consumption when ingested (quantities consumed) | o | o | o | o / (–)** | Source14 |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
+ suitable
++ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
**** Source: Swiss specialist information1516
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
Comorbid mental health problems
| Comorbid mental health problems: | LDX | D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|---|
| Severe depression, suicidal tendency | + | —**** | — | — | + | No increased suicidal tendency in MPH intrapersonal found17 | |
| Mania | — | — | + | — | + | ||
| bipolar, also formerly | + | o**** | — | — | |||
| Fear | +** | +** | Sources see section below | ||||
| Psychotic symptoms, schizophrenia | ++ | + | o | ***** | |||
| Psychopathic / borderline personality disorder | — | ||||||
| Epilepsy tendency | applicable with caution | applicable with caution18 | |||||
| Tourette | — | — | +*** | ++** | |||
| Arousal states | — | ||||||
| Anorexia nervosa/anorectic disorders | —** | —** | — | — | |||
| Bulimia | — |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
+ suitable
++ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
***Source:19
****Swiss specialist information1516
*****Hospitalizations reduced in ADHD + psychosis/schizophrenia by stimulants with continued antipsychotic medication. Large long-term study from 2025 shows benefits of stimulants and atomoxetine for ADHD even in comorbid schizophrenic disorders20
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
Taking other medication
| Taking other medications | LDX /D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|
| Use of monoamine oxidase inhibitors within the last 14 days | — | — | — | — | ||
| Taking sedative medication | — | |||||
| Taking antihypertensive medication | (–)** | (–)** | (–)** | ++ (dose adjustment if necessary) | ||
| Taking other medicines containing bupropion | — | |||||
| H2 receptor blockers or antacids | — |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
++ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
Maternity
| Maternity | LDX/D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|
| Women of childbearing age who do not use contraceptives | — | |||||
| Pregnancy | — (especially first trimester) | — | (–) | — | — | |
| Breastfeeding | — | — | (–) | — | — |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
++ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
Ability to drive
| Ability to drive | LDX/D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|
| Ability to drive / operate dangerous machinery | o Warn patients of possible impairment due to drowsiness and visual disturbances until it is certain that these side effects will not occur in the person with ADHD or will disappear with continued use | o Warn patients of possible impairment due to drowsiness, somnolence and dizziness until it is certain that these side effects will not occur in the person with ADHD or will disappear with continued use | o Warn patients of possible impairment due to drowsiness, dizziness and visual disturbances until it is certain that these side effects will not occur in the person with ADHD or will disappear with continued use o Moderate to highly variable influence on ability to drive or operate machinery, Dizziness, visual problems until it is established that these side effects do not occur in the person with ADHD or disappear with continued use | o Moderate to highly variable influence on the ability to drive or operate machinery due to dizziness and drowsiness (mainly at the start of use) and Fainting | o Ability to drive given, provided no serious side effects such as dizziness occur |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
++ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
*** Viloxazine appears to be the only ADHD drug that does not increase histamine
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
Taking other medication
| Taking other medications with an effect on: | LDX/D-AMP | ATX | MPH | Guanfacine | Bupropion | Comments |
|---|---|---|---|---|---|---|
| CYP3A4/5 | (–) | |||||
| OCT-1 | (–) | |||||
| MATE1 | (–) | |||||
| Drugs that can prolong the QT interval | — | — | ||||
| CES1 | (–) | |||||
| CYP2D6 | (–) | (–) | (–) |
Legend:
Sources, unless otherwise stated1112
— Unsuitable
(–) Limited suitability, under close supervision
o limited suitability
+ particularly suitable
no entry: no known suitability restriction
** In our opinion or sources to be included
Information without guarantee. This information is not intended for self-medication. Always talk to your doctor.
2. Choice of medication without specific problem cases
⇒ Medication for ADHD - Overview
- Of the people with ADHD who would be helped by medication, only around 20 to 25% receive medication. Of those not affected, less than 1% receive medication that they do not need.21
- Before treatment with stimulants, we recommend
- Contraindications for stimulants (most of them uncommon in childhood):23
- Schizophrenia
- Different a large long-term study from 202520
- Severe depression
- Hyperthyroidism
- Cardiac arrhythmia
- Moderate to severe high blood pressure
- Angina pectoris
- Glaucoma
- Monoamine oxidase (MAO) inhibitors
- Previous hypersensitivity
- Simultaneous use
- Use within the last 2 weeks
- Schizophrenia
- Caution is advised for patients with23
- Motor tics
- Known drug addiction
- History of drug addiction, alcoholism, caffeine addiction
- But:
- Stimulants for ADHD can significantly reduce the pressure of addiction
- Alcohol and MPH at the same time do not mix at all
- Alcohol and AMP at the same time are not good, but far less bad than alcohol and MPH
- No caffeine when dosing stimulants - risk of cross-effects
- But:
- Pregnancy
- Breastfeeding
- Anorexia nervosa
- History of suicidal tendencies
2.1. Order of priority of the choice of medication
The following mentions are based solely on our opinion from a scientific point of view. Admission restrictions are not taken into account.
2.1.1. Choice of medication for children and adolescents
For adults, the most helpful from a scientific point of view is the prioritization of medication*:
* Health insurance licenses may deviate from this
- First choice is methylphenidate24
- Amphetamine drugs are the second choice2526
- The third choice is atomoxetine. It can be the first choice for comorbid anxiety disorder27, comorbid CDS (SCT) or severe ADHD-I.
- In children with ADHD, 8.4% switched from an initial MPH medication to atomoxetine, 31.3% from an initial ATX medication to MPH28
- Approximately 40%29 to 50% of MPH non-responders respond to atomoxetine, and approximately 75% of MPH responders also respond to atomoxetine. Atomoxetine can be co-administered with MPH during the switching phase without undue concern for adverse events, such as cardiovascular effects (although monitoring of blood pressure and heart rate is required)30
- In our opinion, the fourth choice is guanfacine (especially for generic hypertension or hypertension caused by MPH or AMP or for comorbid tics), which statistically has a better Effect size with fewer side effects than atomoxetine
- For other possible medications, see the following articles
2.1.2. Choice of medication for adults
For adults, the most scientifically helpful* Prioritization of medication is 2526
* Health insurance licenses may deviate from this
-
Amphetamine drugs are the first choice
- Since March 2024, Vyvanse has also been indicated as a first-line treatment for adults in Germany, but only for children if MPH was insufficiently effective.31
- Doctors (in Germany) must continue to adhere to the principle of cost-effectiveness. As lisdexamfetamine is not the cheapest drug, it can only be prescribed on a health insurance prescription if the cheaper drugs were not sufficiently effective or showed unacceptable side effects
- Since March 2024, Vyvanse has also been indicated as a first-line treatment for adults in Germany, but only for children if MPH was insufficiently effective.31
-
Second choice is methylphenidate
-
The third choice is atomoxetine. It can be the first choice for SCT or severe ADHD-I.
-
In our opinion, the fourth choice is Guanfacine, as the positive effect reports of Guanfacine primarily concern children
- Guanfacine is off-label for adults
- Caution in old age due to increased risk of falling with rapid blood pressure reduction
-
For other possible medications, see the following articles
-
Amphetamine drugs (e.g. lisdexamfetamine (Vyvanse/Vyvanse), amphetamine salts (Adderall), immediate release (Attentin))
- Usually work better in adults and are better tolerated
- Nonresponders: approx. 20 %
- Approx. 30% of adults who switch from MPH to Vyvanse switch back again32
- Dosing too quickly in too high increments increases the discontinuation rate due to side effects or overdosing
- Lisdexamfetamine: Generics may have a different effect, even if there is no pharmacological explanation for this so far
-
Methylphenidate:
- If not effective: test several other MPH preparations
- Different MPH preparations can have very different effects
- Differences in effectiveness are more individual than typical for the preparation
- Nonresponders: approx. 30 %
- Dosing too quickly in too high increments increases the discontinuation rate due to side effects or overdosing
2.1.2. Choice of medication for seniors
In Switzerland, lisdexamfetamine and methylphenidate are approved for adults without an age limit.1516
A contraindication for stimulants in prostatic hyperplasia with residual urine formation is mentioned.33 The specialist literature mentions this for stimulants as drugs. We have not yet been able to find any reports of a negative effect when used in drug dosieurg.
2.2. Further factors for the choice of active ingredient
Further consideration should be given to the medication selection:
- Comorbidities
- Metabolization enzyme gene variants that accelerate or slow down degradation
- other medication taken
- Stomach acid
- possible premenstrual worsening of ADHD symptoms
- women with ADHD should give priority to stimulants, as these can also be taken in higher doses for a short time during the days in question. See below under Side effects of dosing.
- Preference of the people with ADHD
See also:
2.3. Trial and error: finding the right active ingredient requires persistence
Psychiatric disorders and other CNS diseases pose particular challenges when it comes to finding a suitable medication.
ADHD still has a special position within the psychiatric disorders3, as the responder rates of 70% (MPH) to 80% (AMP) are much higher than for other disorders. The Effect size of ADHD medication is also enormously high compared to other disorders.
Nevertheless, it is not possible to predict which active ingredient will work for a particular person with ADHD. Even within a drug class (MPH), one preparation may have intolerable side effects in one person with ADHD, while the other works excellently - while the next person with ADHD reacts in exactly the opposite way to the two preparations. The different reactions are presumably due to the different efflux and degradation profiles of the active ingredient, which can differ considerably between the individual preparations.
For this reason, persistent and gradual adjustment of medication is also the decisive factor for improving symptoms and quality of life with ADHD. We would like to encourage all people with ADHD to keep at it if the results are not satisfactory and to keep trying new preparations and active ingredients together with their doctor.
“In controlled trials, the drug is selected before the subjects are recruited and the dosage is determined by a protocol. In clinical practice, the dosage is determined by the individual response of the subjects. In fact, there is no identified parameter that predicts the molecule, dose, timing of administration and frequency of administration at which an individual will derive optimal benefit from the medication. … In clinical practice, stimulant class medications are adapted to the needs and responses of the individual patient in at least five ways: Active ingredient, delivery system, dose, duration, and frequency.”37
3. Medication selection according to specific problem cases
3.1. Responding
According to a meta-analysis, children with ADHD showed the best symptom improvement with:38
- Dextroamphetamine: 35.5 %
- Methylphenidate: 26.2 %
- equally well with both active ingredients: 38.3 %
3.1.1. MPH Nonresponder
- Adults: AMP, then atomoxetine, then guanfacine, then bupropion.
- Children: AMP, then guanfacine, then atomoxetine, then bupropion.
3.1.2. Amphetamine drug non-responders
- Adults: MPH, then atomoxetine, then guanfacine, then bupropion.
- Children: MPH, then guanfacine, then atomoxetine, then bupropion.
3.2. Treatment of specific ADHD symptoms
3.2.1. Inhibition / impulse control
The ADHD symptom of a lack of inhibition of executive functions is caused dopaminergically by the basal ganglia (striatum, putamen).39 A lack of inhibition of emotion regulation is caused noradrenergically by the hippocampus.39
Therefore, the former may be more amenable to dopaminergic treatment, while emotion regulation and affect control may be more amenable to noradrenergic treatment.
Impulsiveness is also serotonergically mediated.
If strong impulsivity is a prominent symptom of the person with ADHD, it would be negligent to dose stimulants unseen to such a high level that this is adequately eliminated, as this would overdose with regard to the other symptoms. If impulsivity is prominent, treatment with low-dose SSRIs may be helpful.
- Serotonin reuptake inhibitors
- Significantly lower doses than when used as antidepressants
- E.g:
- (Es)Citalopram 2-4 mg / day
- Imipramine 10 mg / day
3.2.2. Inattention / ADHD-I
In a small placebo-controlled study, selegiline only improved inattention, but not hyperactivity/impulsivity.40
Amphetamine medications probably have a more activating effect than methylphenidate. Therefore, amphetamine medications are more useful for ADHD-I than methylphenidate.
It is also reported that people with ADHD-I are more likely to be nonresponders to MPH.
While MPH has a more inhibitory effect and is therefore particularly suitable for the treatment of ADHD-HI (with hyperactivity (children) / inner tension (adults)), D-amphetamine has a more activating / drive-increasing effect and is therefore said to be better suited for the treatment of ADHD-I (without hyperactivity (children) / inner restlessness (adults))41 On this side, however, a number of people with ADHD-HI are known to be significantly better helped by amphetamine medication than MPH.
In persons with ADHD-I subtype, a significant proportion of whom are said to be MPH nonresponders42, D-amphetamine may therefore be an efficient alternative to MPH.
3.2.3. Emotional dysregulation
Emotional dysregulation in ADHD can be treated with stimulants or atomoxetine.43
In our experience, atomoxetine and guanfacine have an advantage over stimulants in the treatment of emotional dysregulation. Atomoxetine and guanfacine work throughout the day. The socially very impairing symptom of rejection sensitivity in particular, which can put a lot of strain on social relationships and partnerships, especially outside the effective period of stimulants, can be significantly improved by non-stimulants that work throughout the day.
On the other hand, these medications have the disadvantages of being more difficult to dose (level medications), which can take weeks, as well as a significantly lower Effect size on the other ADHD symptoms with higher side effects. In particular, the control of drive and motivation that can be achieved with stimulants cannot be achieved with non-stimulants. A combination of (lower doses of) non-stimulants and stimulants is therefore recommended. For people with ADHD who are capable of finely graduated dosing, this will often be the optimal approach.
3.2.4. Rejection Sensitivity
3.2.4.1. Methylphenidate
Many people with ADHD reported that stimulants had a significant and direct influence on their rejection sensitivity. In this context, 90% reported a positive and RS-reducing influence of MPH, 10% reported a rather increasing influence.
One person with ADHD reported that his long-standing intense rejection sensitivity had decreased significantly since treatment with MPH. He also reported that he had experienced several relapses of rejection sensitivity when suitable triggers were present and he had also forgotten to take the MPH medication for just a few hours. The intensity of RS triggered by an evening argument with his girlfriend (outside of the daytime MPH medication) was drastically reduced within 10 minutes of taking MPH.
Methylphenidate significantly reduces the feeling of mistrust in people with ADHD.44
3.2.4.2. Guanfacine and clonidine
According to a single report by an American doctor (Dodson), a combination of the alpha-2-adrenoreceptor agonists guanfacine and clonidine is particularly effective for rejection sensitivity. He reports that at a dosage of between 0.5 and 7 mg guanfacine and between 0.1 mg and 0.5 mg clonidine, one in three people with ADHD loses their rejection sensitivity symptoms. He also reported that the effect on quality of life of this treatment was greater than that of treatment with stimulants.45
Dodson also reports from a Harvard University study that increasing the dosage for guanfacine up to 4 mg and for clonidine up to 7-8 mg resulted in a 40 % higher response, although this dosage was above the recommended limits. This also results in increased side effects.
Guanfacine is more effective as an ADHD medication compared to atomoxetine.
Alpha-2 adrenoreceptors (adrenoceptors) are activated by the neurotransmitters adrenaline and noradrenaline. They are therefore responsible for the effects mediated by adrenaline and noradrenaline.46
Agonists increase the effect of the receptors. As a result, guanfacine and clonidine have a noradrenergic effect and reduce the adrenergic effect.
3.2.4.3. MAO-A reuptake inhibitors
Dodson45 goes on to describe successes with MAO-A reuptake inhibitors, in particular with Parnate (tranylcypromine), which has been the usual treatment for rejection sensitivity to date. MAO-A reuptake inhibitors have also been used successfully in relation to ADHD symptoms.
3.2.4.4. Imipramine, phenelzine
Imipramine and phenelzine are each said to be more suitable (than valproate) for combating rejection sensitivity, depending on the nature of the other symptoms.47.
Imipramine is a conceivable complementary medication to stimulants for ADHD. However, the mutual enhancement of the effects of imipramine and methylphenidate should be taken into account.
3.2.4.5. Valproate for borderline
Valproate (250 mg to 500 mg) moderately improved symptoms of irritability, anger, anxiety, rejection sensitivity and impulsivity in 50% of people with ADHD. The results varied greatly from person with ADHD to person with ADHD.48
3.2.5. Weak drive
- Amphetamine drugs
- For AMP non-responding: MPH
Supplementary:
While MPH has a more inhibitory effect and is therefore particularly suitable for the treatment of ADHD-HI (with hyperactivity (children) / inner tension (adults).), D-amphetamine has a more activating / drive-increasing effect and is therefore more suitable for the treatment of ADHD-I (without hyperactivity (children) / inner restlessness (adults).)41
However, we are aware of a number of people with ADHD-HI who are significantly better helped by amphetamine medication than MPH.
Bupropion can have a supportive effect in the case of a lack of drive. Conversely, bupropion can lead to decompensation in ADHD-HI and ADHD-C.
3.2.6. Severe symptoms early in the morning and/or in the evening
If symptoms are severe in the early morning or evening (before the start and/or after the end of the stimulant effect), augmenting administration of non-stimulants can be helpful, as these cover the entire day 49
3.3. Avoidance of specific side effects of ADHD medication
See under Dosing of medication for ADHD
3.4. Choice of medication for comorbidities with ADHD
3.4.1. Anxiety disorder comorbid with ADHD
3.4.1.1. Anxiety disorders generally comorbid with ADHD
3.4.1.1.1. Stimulants
Some physicians have reservations about stimulant treatment in children with ADHD and comorbid anxiety disorder, as “anxiety and nervousness” are cited as a common side effect of stimulants by major drug information databases such as Micromedex, Lexicomp and UptoDate.50.
However, most people with ADHD also benefit from stimulant treatment in terms of comorbid anxiety symptoms.50
A meta-analysis of k = 23 studies on n = 2,959 children with ADHD found a significant reduction in anxiety symptoms with stimulant use compared to placebo.51
Immediate release methylphenidate derivatives reduced anxiety more than placebo. Sustained-release MPH and amphetamine derivatives did not influence the risk.
In a minority of people with ADHD, stimulants can exacerbate anxiety, although this is more common with amphetamine medications than with methylphenidate. High doses, especially above the recommended maximum daily doses, increase the risk. 51 Anxiety disorders can be exacerbated by stimulants, as anxiety and moods are regulated by the dopaminergic activity of the ventromedial prefrontal cortex in conjunction with the limbic system.52
We are aware of reports from the forum of depression or anxiety symptoms as a side effect of amphetamine medication. Although such reports are rather rare, they should be taken seriously. In these cases, the first step is to consider changing the active ingredient.
Stimulants can therefore be used in children with ADHD and comorbid anxiety disorder. Even if anxiety occurs, discontinuation of stimulants is rarely necessary.50
An analysis of the proteins addressed by Vyvanse showed indications that Vyvanse could also have a positive effect in the treatment of anxiety.53
According to the prescribing information, Vyvanse is not (or no longer) contraindicated in Switzerland for comorbid anxiety disorders. Dextroamphetamine (Attentin) is still contraindicated for anxiety disorders in Switzerland, MPH for severe anxiety and tension.1516
3.4.1.1.2. Non-stimulants
Atomoxetine can help to reduce comorbid anxiety symptoms in children and adolescents.54555657
Positive effects of atomoxetine on comorbid anxiety disorders have been reported.58 Atomoxetine is said to have an Effect size of 0.5 in relation to anxiety.29
The improvement in anxiety symptoms with atomoxetine was slightly greater than with MPH 5960
Guanfacine is not contraindicated in Switzerland for comorbid anxiety disorders. Atomoxetine is contraindicated in Switzerland for patients with severe anxiety who are at risk of suicidal behavior. This information presumably refers to the Swiss legal situation.1516
3.4.1.1.3. Combination medication
One study examined the combination treatment of atomoxetine with SNRIs and SSRIs in adults with ADHD and comorbid generalized anxiety disorder. In all subjects, SNRIs or SRIs alone failed to improve anxiety symptoms. A combination treatment of SNRI or SSRI with atomoxetine showed significant improvements in anxiety symptoms compared to the previous monotherapy with SNRI/SSRI.61
Comorbid anxiety disorder was mentioned by one review as an indication for comedication of stimulants with guanfacine (extended release) 49
Beneficial experiences in ADHD and mild to moderate comorbid anxiety disorder were reported by:
- Stimulants plus venlafaxine 18.75 to 150 mg / day62
- Stimulants plus duloxetine 30 mg / day62
- Stimulants plus fluoxetine 10 to 20 mg / day62
An individual case report noted a good long-term effect of a combination medication of vortioxetine (10 mg/day) and MPH on stimulant-induced anxiety and ADHD symptoms in a 15-year-old person with ADHD who did not respond to atomoxetine, reacted to MPH with dysphoria and could not tolerate augmenting clonidine. This was achieved with high tolerability.63
CBD has been reported to help anxiety sufferers reduce the dosage of anxiolytic medication.
3.4.1.2. Comorbid social phobia in ADHD
Positive effects of atomoxetine on comorbid social anxiety have been reported.58
3.4.2. Depression comorbid with ADHD
As stimulants have a drive-increasing effect, this can release an existing suicidal tendency that was not previously acted out due to existing depression. Stimulants should therefore only be used with particular caution in cases of (even concealed) severe depression.
One study found no increased suicidal tendency with MPH when the periods of use and non-use were compared within the group of persons with ADHD treated with MPH.17 Other studies report a reduction in the risk of suicide with long-term MPH use.64
Dysthymia/dysphoria in the sense of a permanent (for years) mild depression (moodiness, especially when inactive) is only rarely a comorbid depression, but regularly an intrinsic ADHD symptom. In the case of dysthymia / dysphoria, ADHD-oriented medication with activating agents (bupropion, amphetamine medication) is indicated according to this view.
In the case of comorbid mild to moderate depression (in our opinion, possibly also in the case of severe depression if the risk of suicidal tendencies is excluded), the ADHD should be treated first. Given the rapid effectiveness of stimulants, it can then be observed whether the removal of the ADHD problem eliminates the stressor driving the depression. This is quite often the case.
- Comorbid depression is often a consequence of untreated ADHD. Previously undiagnosed ADHD is found in around a third of all treatment-resistant depression cases.
- ADHD medications work much faster (15 minutes to 1 hour) than antidepressants (to 2 weeks or more), although proper fine-tuning to ADHD stimulants can often take months
- MPH does not have a steady state, lisdexamfetamine has a steady state of 3 days (even longer for slow metabolizers)
- Stimulants have significantly fewer side effects than antidepressants
- Stimulants do not have to be dosed out, but can be discontinued immediately. Consequences: preparations and active ingredients can be changed immediately
- Stimulants only have withdrawal side effects in very rare exceptional cases, while ADs have much more frequent withdrawal side effects, which can become very severe in some cases (especially with venlafaxine, up to the point of hospitalization)
- Stimulants have a much greater Effect size (MPH 0.9 to 1.1, lisdexamfetamine up to 1.5, both in relation to ADHD) than antidepressants (on average 0.3, with venlafaxine having the best value of 0.49 for depression).
3.4.2.1. Stimulant monotherapy as a first step in comorbid depression and ADHD
In persons with ADHD with comorbid depression, the risk of depression was found to be 20% lower during the period of ADHD medication than during the unmedicated period. The 3-year long-term risk of depression was reduced by 43%.65
Treatment of adult people with ADHD with MPH also improved existing depressive symptoms, although not completely to the level of healthy controls.66
Amphetamine medications are - (even) better than MPH - for the co-treatment of comorbid dysphoria or depression6768 , possibly due to the noticeable serotonergic effect69, often more effective than MPH.
In forums, a number of people with ADHD report a significant antidepressant effect of amphetamine medication, which they are not familiar with from MPH.70 D-amphetamine is said to be more activating than MPH and therefore preferably recommended for ADHD-I, which should help accordingly due to the frequently internalizing nature of depression.71
In our experience, lisdexamfetamine (Vyvanse) also shows greater improvement in depressive symptoms than methylphenidate as part of ADHD treatment.
An analysis of the proteins addressed by Vyvanse showed indications that Vyvanse could also have a positive effect in the treatment of depression.53
Moderate or severe depression can be exacerbated by stimulants, as anxiety and moods are regulated by the dopaminergic activity of the ventromedial PFC in conjunction with the limbic system.52
We are aware of reports from the forum of depression or anxiety symptoms as a side effect of amphetamine medication. Although such reports are rather rare, they should be taken seriously. In these cases, the first step is to consider changing the active ingredient.
Lisdexamfetamine (Vyvanse) is not (or no longer) contraindicated in Switzerland for comorbid major depression. Dextroamphetamine and MPH are still contraindicated in Switzerland for severe depression.1516 It is not clear whether this refers only to Switzerland or also to Germany.
Neither stimulants nor stimulants statistically significantly increased the risk of suicide. However, there was an increased tendency for non-stimulants, and no tendency for stimulants.72
3.4.2.2. Atomoxetine as monotherapy
Whether atomoxetine is effective for depression is controversial. While the majority of voices deny this2373 74 , one study found an improvement in depression symptoms with atomoxetine that corresponded to that of paroxetine and venlafaxine.75
Among 27 adolescents with non-suicidal self-injurious behavior with clinical or subclinical ADHD, atomoxetine improved self-injurious behavior as well as depression scores.76
Atomoxetine is contraindicated in Switzerland in patients with severe depression (unclear whether only in those at risk of suicidal behavior).1516
One study found that atomoxetine increased the risk of suicidal and self-injurious behavior in children and adolescents with ADHD, while monotherapy with stimulants did not, nor did combination medication of atomoxetine with stimulants.77 According to another study, neither stimulants nor stimulants statistically significantly increased the risk of suicides. However, the tendency was increased with non-stimulants, but not with stimulants.72 Another study found a reduced risk of suicidal behavior with atomoxetine in children and adolescents compared to stimulants, regardless of whether ATX was used as a first-line or second-line medication.78
3.4.2.3. Guanfacine for ADHD with comorbid depression
Guanfacine is not contraindicated in Switzerland for comorbid depression.1516
3.4.2.4. Bupropion
Bupropion has an antidepressant effect, is the 5th choice ADHD medication and is used for smoking cessation.
In subjects with a high polygenic risk score (PGS) for ADHD, the risk of suicidal thoughts was 66% higher for SSRIs than for bupropion. SNRIs and SSRIs increased the risk to the same extent. With a low PSG, SSRIs increased the risk of suicidal thoughts by only 6% more than bupropion (6%).79
The antidepressant effect of SSRIs and SNRIs was much stronger in women than in men.79
3.4.2.5. Combination medication for comorbid depression and ADHD
3.4.2.5.1. Atomoxetine and fluoxetine
A double-blind, placebo-controlled study investigated combination treatment with atomoxetine and fluoxetine (an SSRI) compared to monotherapy with atomoxetine in children and adolescents with ADHD and comorbid symptoms of depression or anxiety. The study found no relevant improvements in ADHD symptoms with the combination treatment. There were small improvements in the area of symptoms of comorbid depression with combination therapy compared to monotherapy with atomoxetine, with the latter already improving depression and anxiety symptoms in addition to ADHD symptoms. The combination treatment did not show any increased side effects. Blood pressure was slightly higher with combination therapy than with monotherapy.57
3.4.2.5.2. Atomoxetine and sertraline
One study found evidence of an effect of atomoxetine together with sertraline in HTTLPR (SERT) genotype s/s compared to sertraline monotherapy 80
3.4.2.5.3. SSRI and MPH for comorbid depression with ADHD
One study problematizes that SSRIs (e.g. fluoxetine) increase a moderate addiction-related gene regulation of MPH in the striatum of rats and could thus increase dependence on methylphenidate. This is less pronounced with vilazodone81
3.4.2.5.4. Escitalopram and MPH for comorbid depression with ADHD
One study found no increased risk of augmenting escitalopram to MPH in ADHD, except in the presence of additional comorbid TIC disorders.82
3.4.2.5.5. Fluoxetine and MPH for comorbid depression and ADHD
Positive experiences have been reported with stimulants plus fluoxetine 10 to 20 mg/day for comorbid mild to moderate depression62
A study of people with ADHD with comorbid depression, who did not show sufficient improvement in ADHD symptoms with MPH alone, found significant improvements in ADHD symptoms in almost all subjects with augmenting fluoxetine. In 40% of the test subjects, an additional dose of less than 20 mg fluoxetine was sufficient. There were no increased side effects.83 Another study found no increased side effects for fluoxetine with MPH medication for ADHD and a significantly lower risk compared to escitalopram for comorbid TIC disorders.82
Combined administration of MPH and fluoxetine reduced anxiety and depression-like behaviors in rats significantly more than either drug alone.84
Fluoxetine is said to be the only SSRI with a drive-enhancing effect. As a monotherapy, it does not appear to be suitable for the treatment of ADHD. ⇒ Fluoxetine for ADHD
Co-administration of MPH and fluoxetine to juvenile rats resulted in increased sensitivity to reward stimuli (which should be positive in ADHD) and increased anxiety and stress sensitivity (which would be detrimental in ADHD) in adult animals.85 However, healthy animals and no ADHD model animals were tested.
A combination of MPH and fluoxetine reduced D2R binding in rats, which neither MPH nor fluoxetine alone did, in:86
- dorsal caudate putamen (51.5 %)
- dorsolateral caudate putamen (50.4 %)
- Nucleus accumbens core (44.8 %)
- ventral caudate-putamen (47.7 %)
- ventromedial caudate-putamen (49.1 %)
D2R activity, particularly in the affected regions, has a key role in learning and memory as well as in the acquisition of addictive behaviors. A reduction in overall D2R levels was found in people with ADHD.87
3.4.2.5.6. Selegiline and lisdexamfetamine for comorbid depression
One study reports successful co-medication of selegiline and lisdexamfetamine (Vyvanse) for ADHD and comorbid depression.88 Another study on the co-medication of stimulants and MAO inhibitors in depression found no problems arising from this89
Thus, a combination medication of selegiline with stimulants can also be considered for ADHD.
3.4.2.5.7. Duloxetine and stimulants for comorbid depression
Positive experiences have been reported with stimulants plus duloxetine 30 mg/day for mild to moderate depression62
3.4.2.5.8. Venlafaxine and stimulants for comorbid depression
Positive experiences have been reported with stimulants plus venlafaxine 18.75 to 150 mg/day for mild to moderate depression62
We are aware of many reports of massive discontinuation symptoms with venlafaxine. In some cases, discontinuation was not successful at all or took six months, with massive side effects. Against this background, venlafaxine should be considered as one of the last remaining antidepressants.
3.4.2.5.9. MAO inhibitors and stimulants for comorbid depression
A study on the co-medication of stimulants and MAO inhibitors in depression found no problems arising from this,89 contrary to the frequently assumed problem of blood pressure crises.
The safety requirement is that MAO inhibitors must be discontinued for 14 days before taking stimulants.
3.4.2.5.10. Lamotrigine for ADHD with comorbid depression
See under Lamotrigine for ADHD
3.4.2.5.11. Comorbid depression with specific manifestations
3.4.2.5.11.1. Comorbid depression with concentration and drive disorders
Experience has shown that it is helpful for comorbid depression with concentration and drive disorders:
3.4.2.5.11.2. Comorbid depression with severe drive disorder
Experience has shown that it is helpful for comorbid depression with pronounced drive disorders:
- Bupropion 150 to 300 mg90
3.4.2.5.11.3. Comorbid depression with obsessive-compulsive disorder
Experience has shown that it is helpful in cases of comorbid depression with an obsessive-compulsive personality structure:
- Sertraline 50 to 100 mg90
3.4.2.5.11.4. Comorbid depression with irritability
Experience has shown that it is helpful for comorbid irritable depression:
- Moclobemide 75 to 100 mg90
3.4.2.5.11.5. Comorbid depression with irritability
Experience has shown that it is helpful for comorbid depression with strong irritability:
3.4.4. Bipolar comorbid with ADHD
Methylphenidate and mixed amphetamine salts are the most promising options for the treatment of Bipolar Disorder, especially in children and adolescents. The data on atomoxetine, viloxizine, modafinil and armodafinil is limited. This is also true for lisdexamfetamine (the only stimulant marketed for the treatment of ADHD that has also been studied as an add-on strategy for treatment-resistant bipolar depression). The use of these active ingredients should therefore be evaluated cautiously and on an individualized basis. ADHD medications show a favorable safety profile with no increased risk of manic episodes, especially when combined with mood stabilizers.91
MPH together with a mood stabilizer does not increase the risk of manic changes or psychotic symptoms. If stimulants are ineffective or poorly tolerated, atomoxetine appears to be an option.55
Stimulants can be used safely in children and adolescents comorbid with bipolar Disorder if the manic/hypomanic symptoms are effectively treated with a mood stabilizer.50
A meta-analysis of k = 5 studies with n = 1,653 data sets found no increase in Young Mania Rating Scale scores for stimulant bipolar compared to placebo in patients who were in a euthymic or depressed state (SMD minus 0.17). The study results were highly heterogeneous and a qualitative synthesis of the studies showed a limited risk of drug-induced manic symptoms.92
It is said to be helpful in cases of Bipolar Disorder and strong fluctuations in affect:
- Lamotrigine90
- more on this under Lamotrigine for ADHD
- carbamazepine or valproate if necessary
In comorbid bipolar Disorder with irritable depression, good experiences were reported by
- Aripiprazole 5 to 15 mg/day62
- Lamotrigine (important: dose slowly)62
An analysis of the proteins addressed by Vyvanse showed indications that Vyvanse could also have a positive effect in the treatment of bipolar Disorder.53
Stimulants should only be given with caution, even in the case of stable bipolar Disorder:1516
Lisdexamfetamine (Vyvanse) and MPH are contraindicated in Switzerland for (acute) mania.
Dexamfetamine is contraindicated in severe or episodic (type I) bipolar affective disorders (which are not well controlled).
Guanfacine and atomoxetine are not contraindicated in bipolar disorders.
3.4.5. Mood swings comorbid with ADHD
Strong and frequent mood swings are said to be helpful:
- Venlafaxine retard 18.75 to 150 mg90
- Carbamazepine
- Valproate
- Lamotrigine
- more on this under Lamotrigine for ADHD
3.4.6. Borderline comorbid with ADHD
A comparative effectiveness study of N = 22,601 people with Emotionally Unstable Personality Disorder with comorbid ADHD showed that ADHD medications were the only medication group that significantly reduced the risk of suicidality.93
Should be helpful for comorbid borderline:
Valproate (250 mg to 500 mg) moderately improved symptoms of irritability, anger, anxiety, rejection sensitivity and impulsivity in 50% of people with ADHD. The results varied greatly from person with ADHD to person with ADHD.48
3.4.7. Disruptive Mood Dysregulation Disorder (DMDD) comorbid with ADHD
DMDD is characterized by persistent strong irritability and high impulsivity. ADHD often occurs comorbidly.
One study found a positive effect of a combination therapy of aripiprazole and methylphenidate in children with comorbid DMDD and ADHD. Increased side effects were not found.94
3.4.8. Irritability with ADHD
One study reported a very good reduction in irritability with dextromethorphan given in addition to MPH in children and adolescents with ADHD.95
3.4.9. Aggression comorbid with ADHD
Comorbid aggression or oppositional behavior was mentioned by one review as an indication for comedication of stimulants and non-stimulants (alpha-2 agonists or atomoxetine) 49
Several atypical antipsychotics, particularly risperidone, were effective in improving aggression. Some studies showed (contrary to the FDA’s warning that stimulants could worsen aggression) that stimulants, like antipsychotics, were effective in improving aggression, especially in hyperactive children96
Stimulants that improve ADHD often also improve aggression and disruptive behavior from comorbid oppositional defiant disorder, conduct disorder, mood regulation disorder, or ASD.50 In a study using rapid titration of MPH in n = 155 boys aged 6 to 12 years with ADHD and comorbid CD, 2/3 of subjects showed remission of aggression symptoms (R-MOAS score <18) after an average of 75 days of stimulant treatment.
Combination treatment with (low-dose) antipsychotics and psychostimulants can be particularly helpful for comorbid aggression if monotherapy with stimulants and a combination of stimulants with behavioral therapy interventions were not sufficient to treat aggression.97 Various expert panels have come to the conclusion that if aggression comorbid with ADHD (not: aggression resulting from stimulants) is not sufficiently improved by the prescription of stimulants, the concomitant use of atypical antipsychotics is indicated, with cautious dosing.9899
In relation to comorbid oppositional aggression, prolonged-release molindone (SPN-810) is being tested.100101102103104105106 SPN-810M is a strong antagonist for the dopamine receptors D2S and D2L and the serotonin receptor 5-HT2B.107108
Molindone is an atypical/conventional antipsychotic approved in the USA as an IR for the treatment of schizophrenia (brand name: Moban).
Side effects included headaches, sedation and increased appetite.100
For co-medication with antipsychotics and psychostimulants, see also above under weight loss.
Bipolar disorders, intermittent explosive disorders and early-onset psychosis without comorbid ADHD are more likely to show treatment-induced mania on stimulants, psychosis or their explosive behavior may become more aggressive. Stimulants are therefore only helpful in reducing aggression in existing ADHD.50
3.4.10. Oppositional defiant behavior comorbid with ADHD
Comorbid aggression or oppositional behavior was mentioned by one review as an indication for comedication of stimulants and non-stimulants (alpha-2 agonists or atomoxetine) 49
A meta-analysis of k = 28 studies found that stimulants showed similarly good improvements on aggressive behaviors in ADHD as on the core ADHD symptoms themselves. For aggressive behaviors without comorbid ADHD, the effect of stimulants was slightly worse.109 MPH110111 was just as helpful as AMP29.
Atomoxetine is said to be helpful for comorbid oppositional defiant behavior.55112 However, one study only found an Effect size of 0.39 on Oppositional Defiant Behavior, with higher doses being more helpful than for ADHD without comorbidity113, two studies found no efficacy 11429
Guanfacine showed positive effects on oppositional behavior in children with ADHD as monotherapy115 as well as in combination with MPH116.
Combination treatment with risperidone and MPH proved helpful for comorbid ODD and ADHD117, as well as for comorbid conduct disorder (CD).118
Effect size of different drugs on ODD compared to placebo:119
- 0.85 Stimulants (k = 6, n = 545)
- 0.43 Guanfacine (k = 2, n = 678)
- 0.33 Atomoxetine (k = 15, n = 1,907)
- 0.27 Clonidine (k = 3, n = 283)
3.4.11. Conduct disorder (CD) comorbid with ADHD
Atomoxetine is said to be helpful for comorbid conduct disorder.55120
Conduct disorder is also often treated with:120
- Antipsychotics
- Antidepressants such as imipramine, desipramine, SSRIs
- Lithium
One study found 67,595 children and adolescents who started medication with methylphenidate between 2005 and 2013 who received a combination therapy of MPH and antipsychotics. Among them was a combination with
- Risperidone (72 %)
- Pipamperon (15 %)
- Tiapride (8 %)
A quarter of the users of a combination therapy of MPH and antipsychotics were prescribed these only once.
The use of combinations of MPH with risperidone and tiapride was frequently suitable (> 72%), whereas the use of the combination MPH-pipamperone was only rarely suitable (< 15%).121
3.4.12. ASD comorbid with ADHD
Up to 70% of people with ADHD have comorbid ADHD.122
Medication for autism spectrum disorder and comorbid ADHD:
- There are frequent reports of increased sensitivity to medication in general, including ADHD medication, or a reduced dose requirement. In some cases, the doses required are extremely low.50 Other voices report the same doses for ADHD medication with comorbid ASA (however, citing Hyman et al. (2020), whose statement is not consistent with the studies reproduced there, see below), with an increased risk of side effects at the same time122
- Stimulants
- Children with ASD and comorbid ADHD reported (% of patients):123
- Restlessness:
- 47.4 % improved (especially in children diagnosed later)
- 28.1 % worsened (especially due to sustained release MPH)
- Concentration
- 56.1 % improved
- 15.8 deteriorated
- Sleep
- 8.8 % improved
- 17.5 % deteriorated
- Language
- 86 % unchanged
- 12.25 % deteriorated
- 1.75 % improved
- Other behavioral changes
- 50.9 % unchanged
- 45.6 % negative changes
- 3.5 % positive changes
- Restlessness:
- Children with ASD and comorbid ADHD reported (% of patients):123
- MPH:
- 49 % responders among n = 72 children aged 5 to 14 years124
- The starting dose should be very low, e.g. 2.5 mg of immediate release MPH per single dose; in the next step, 2.5 mg of immediate release MPH twice a day; then slowly increase the dose in 2.5 mg to 5 mg increments every 5 to 7 days125
- This study even reports cases with 2.5 mg sustained release MPH as a daily dose
- Another study of preschoolers with ADHD and comorbid ASD or other developmental disorders started with 1.25 mg MPH b.i.d. and allowed a max of 10 mg b.i.d.126
- Low doses under careful monitoring (e.g. 0.3 mg/kg/day) with low target doses (e.g. 0.5 mg/kg/day)127
- The dosage claimed in the text to be the same as for children with ADHD without ASA is not found in the source cited. The studies cited there name conspicuously low dosages.
- More sensitive side effect reactions to stimulants possible, especially loss of appetite and insomnia127
- Effective for hyperactivity, inattention and irritability symptoms, fewer side effects than ATX128
- Poorer effect and worse level of side effects than with ADHD without ASA129
- Poorer effect on hyperactivity with intellectual impairment130
- Lisdexamfetamine:
- Amfetamine salts:
- Suitable daily doses are reported125
- 2.5 mg to 40 mg immediate release
- 5 mg to 60 mg sustained release
- Suitable daily doses are reported125
- Atomoxetine:
- Guanfacin:
- Amitriptyline:
- At a dosage of about 1 mg/kg/day with cautious use is effective for129
- Sleep, anxiety, impulsivity and ADHD, repetitive behavior and enuresis
- At a dosage of about 1 mg/kg/day with cautious use is effective for129
- Aripiprazole (off label) 2.5 mg (starting dose) to 10 mg90
For autistic traits (subclinical ASD)
Pure ASA medication:
In the USA, only risperidone and aripiprazole are approved by the FDA for ASA treatment129
- Risperidone
- Hyperactivity/impulsivity in autism or mental retardation can be improved by stimulants such as risperidone. Risperidone is not generally approved for the treatment of ADHD, but could be considered for comorbid autism. Due to the potential for increased side effects, cautious dosing is required for these symptom combinations.23
- Citalopram and fluoxetine (SSRI):
- Poor tolerability and lack of effectiveness for repetitive behaviors129
- Oxytocin:
- Showed no effectiveness129
- Amitriptyline and loxapine:
- Promising129
- Loxapine:
- In a dosage of 5 to 10 mg daily in PET similar to atypical antipsychotic, possibly without weight side effects129
Memantine has been shown to be helpful in both ASD and ADHD. More on this under Memantine for ADHD.
3.4.13. Comorbid strong irritability / increased sensitivity
Experience has shown that it is helpful in cases of comorbid severe irritability:
- Aripiprazole (off-label) starting dose 2.5 mg, up to 10 mg90
One study reports a reduction in sensory over-responsivity (SOR due to high-dose vitamin B6 (100 mg / day)).131
100 mg/day is the maximum safe dose. In view of the serious side effects, it should not be taken without medical supervision.
At the same time, it should be borne in mind that B6 intoxication can lead to neuropathies, which can be associated with impaired sensory sensitivity.132
3.4.14. Tic disorders comorbid with ADHD
Comorbid tic disorders were mentioned by one review as an indication for comedication of stimulants with alpha-2 agonists 49
Tourette’s has an estimated prevalence of 0.52% and is four times more common in boys than in girls. Every second adolescent with Tourette’s suffers from ADHD133
In children and adolescents with ADHD and tic disorders or Tourette’s, stimulants can be an effective treatment. As a rule, tics or Tourette’s are not aggravated by them, even if there are individual cases where this is not the case.13450
As dextroamphetamine in high doses can (initially) worsen tics in some children, methylphenidate should be preferred.50 As always, a slow and small-step dosage is recommended, even if this requires more persistence.
According to a Cochrane review, MPH such as dextroamphetamine are effective for ADHD-affected children and adolescents with tics. MPH also improved tics. However, dose increases were restricted due to concerns about an increased risk of tics.134 Krause reports that monotherapy with stimulants can initially worsen comorbid tics. However, this usually disappears within about 4 weeks. In addition, a slow up-dosing and a low dosage can be helpful.18 In the case of severe ADHD and a history of tic exacerbation with stimulants, it is possible that the stimulant will not exacerbate the tics when administered again.135
Stimulants used to be discouraged for adolescents with Tourette’s or chronic tic disorders,136 as case reports from the 1970s reported tics in children treated for ADHD with a stimulant (especially motor tics, e.g. eye blinking, nose scrunching, lip licking).136
However, a meta-analysis of k = 22 studies with n = 2,385 children with ADHD found no causation of tics by stimulants compared to placebo in adolescents without pre-existing tic disorders.135
Positive effects on tics/Tourette’s have been described for the following other medications:
- Guanfacin137138
- Atomoxetine13719
- Selegiline
- One study found good improvement in ADHD symptoms with selegiline in children with ADHD and comorbid tic disorder over a test period of more than 6 months. Only 2 of the 29 subjects reported an exacerbation of tics. The side effects were minor.139
- Another study of 24 children with ADHD and comorbid Tourette’s found only slight improvements in ADHD symptoms with a high dropout rate among participants140
- Clonidine
- Worked better than methylphenidate with halperidol in children with ADHD and comorbid tic disorders.141
An analysis of the proteins addressed by Vyvanse showed indications that Vyvanse could also have a positive effect in the treatment of tic disorders.53
Barkley reports in a lecture on the advantages of a combination of stimulants and guanfacine (which is helpful for comorbid tics) to counteract the dampening of the limbic system caused by stimulants and the associated reduced perception of emotions.142
Antipsychotics appear to have a higher Effect size for tic disorders without ADHD.138
3.4.15. Obsessive-compulsive disorder comorbid with ADHD
Atomoxetine showed positive effects on compulsive behaviors.143
A report on 2 children with Compulsions and AD(H)D (ages 9 and 10) suggested a positive effect of a combination of behavior therapy, sertraline, and guanfacine.144
Positive experiences have been reported with sertraline 50 to 100 mg/day for comorbid obsessive-compulsive disorder.62
3.4.16. Schizophrenia and psychosis comorbid with ADHD
Taking stimulants or atomoxetine reduced the risk of psychosis-related hospitalization by 2/3 (HR = 0.36) in the 12 months following the introduction of these drugs when taken in combination with antipsychotics.145
A Swedish cohort study found a very small increase in the risk of psychosis of 4% in adolescents without a history of psychosis (average age 17 years) in the 12 weeks after starting MPH treatment compared to the 12 weeks before starting treatment.146
A large long-term study (n = 131,476) examined the total number of hospitalizations, deaths, and hospitalizations due to psychosis, somatic disease, and cardiovascular disease when people with schizophrenic disorders took ADHD medications. The use of ADHD medications (particularly lisdexamfetamine in all doses and long-acting methylphenidate in low to moderate doses) was safer than generally assumed:20
- Lisdexamfetamine
- reduced risk of hospitalization/mortality from all causes (minus 11%; aHR = 0.89, 95% CI = 0.84-0.94)
- reduced risk of somatic hospitalization (minus 30%; aHR = 0.70 [0.58-0.84])
- Evidence of U-shaped relationships between the doses used and the risk of hospitalization/mortality from all causes and psychosis
- Methylphenidate
- slightly increased risk (+ 4 %; aHR = 1.04 [1.01-1.08])
- increased risk of hospitalization/mortality from all causes with methylphenidate only at doses of ≥ 95 mg/day (+8%; aHR 1.08 [1.03-1.14])
- increased risk of hospitalization/mortality if no antipsychotic was taken at the same time (+6%; aHR = 1.06 [1.01-1.12])
- Evidence of U-shaped relationships between the doses used and the risk of hospitalization/mortality from all causes and psychosis
- Atomoxetine
- reduced risk (only) of hospitalization for psychosis (minus 13%; aHR = 0.87 [0.78-0.98])
- ADHD polytherapy
- increased risk (only) of somatic hospitalization (+ 37%; aHR = 1.37 [1.07-1.74])
- all ADHD medications
- no further statistically significant correlations
- no influence on cardiovascular hospitalizations
Older sources, on the other hand, saw stimulant-induced psychosis as a risk factor:50
- Schizophrenia
- bipolar disorders
- other psychiatric disorders with psychotic features in childhood
Stimulant-induced psychotic symptoms disappear after discontinuation of the stimulant in 92% of patients without the need for antipsychotic treatment.147
A study of stable schizophrenia patients with ADHD found no psychotic symptoms or other serious side effects with up to 250 mg lisdexamfetamine/day (3.5 times the maximum recommended daily dose).148
Experience has shown that it is helpful for comorbid psychotic symptoms, whereby people with ADHD are said to develop extrapyramidal symptoms quickly:
3.4.17. Substance abuse / addiction comorbid with ADHD
Stimulants do not increase the risk of addiction in ADHD,149 but significantly reduce the risk of addiction and relapse during use.73 Addictive substance use was around 35% lower during medication with stimulants than during the unmedicated period.150 MPH significantly reduced the occurrence of subsequent addiction (meta-analysis, k = 6, n = 1014).151 The risk of later addiction, whether to alcohol or other substances, was reduced by a factor of 1.9.152
Methylphenidate is now considered a treatment option for addiction disorders.153 A case report gives an example of the effect of lisdexamfetamine on a former addict.154 In one study, lisdexamfetamine reduced drug intake in methamphetamine addicts.155
The Joint Addiction Commission of the German Child and Adolescent Psychiatric Society and Associations summarizes its recommendations in 2024: “Despite these concerns, the use of stimulants in patients with comorbid ADHD and SUD is generally recommended, although careful consideration is necessary in each individual case, as the benefits of early concomitant treatment outweigh the risks. In addition, careful supervision and therapeutic monitoring are essential.”156
While in acute comorbid amphetamine substance abuse atomoxetine is cited as beneficial due to the lower risk of abuse55, persons with ADHD and opioid addiction under treatment (opioids are dopaminergic drugs) showed greater treatment adherence to opioid replacement treatment (buprenorphine). Those who received stimulants were 33% more likely to discontinue buprenorphine treatment. This speaks in favor of stimulant treatment even in the case of previous addiction to dopaminergic drugs.157
Previous substance abuse is not normally a contraindication for stimulants158
Lisdexamfetamine (Vyvanse) produces the same D-amp levels as when taken orally, even when taken intranasally (snorting)159 or intravenously (injecting)160 as prescribed. The effect was approximately the same, with slightly increased side effects. There was no intoxicating effect. This shows that the risk of abuse of lisdexamfetamine is very low.
One study compared the abuse potential of single oral doses of lisdexamfetamine (LDX) 50, 100 (equivalent to 40 mg DAmp) and 150 mg, 40 mg d-amphetamine and 200 mg diethylpropion in 36 subjects with previous stimulant abuse. When susceptibility to abuse was measured using the Drug Rating Questionnaire-Subject Liking Scale, lisdexamfetamine at 50 mg and 100 mg showed no significant increase compared to placebo (2.1), but a significant increase at 150 mg (6.1). Dextro-amphetamine (DAmp) and diethylpropion showed significantly increased values of 4.0 and 4.5 respectively. Subjects preferred 40 mg DAmp over 100 mg LDX, while 150 mg LDX and 40 mg DAmp were equal.161 The maximum regular daily dose of lisdexamfetamine is 70 mg.
In the case of acute THC or alcohol substance abuse without acute amphetamine addiction, we consider the risk of a person with ADHD attempting to abuse prescribed stimulants as a drug to be very low.
When withdrawing from dopaminergic drugs, the administration of stimulants can help to alleviate withdrawal symptoms and prevent relapse.
Lisdexamfetamine (Vyvanse), guanfacine and atomoxetine are not contraindicated in Switzerland for acute alcohol or drug abuse.162163164
Dexamphetamine and methylphenidate are contraindicated in Switzerland in cases of acute alcohol or drug abuse.1516
N-acetylcysteine (ACC, NAC), which is often used to treat colds, reduced drug-seeking behavior in heroin-addicted rats.165166 The same was observed in relation to cocaine addiction167168 169 170 171 although higher doses of NAC (up to 3,600 mg/day) were more effective in people with cocaine addiction172. One review found NAC to be particularly suitable for preventing relapse in subjects who were already abstinent.173
NAC only reduced the glutamate level in the group of cocaine addicts, while it remained unchanged in the healthy control subjects. Higher baseline glutamate levels correlate with higher impulsivity. Impulsivity as well as increased glutamate levels predicted a reduction in glutamate levels by NAC. Abnormal glutamate levels correlate with relapse in cocaine addiction174
NAC also reduced craving for METH in several studies175175 , but not in another study176.
One review found reduced craving with NAC for cannabis and nicotine177
One RCT found no reduction in cannabis use in adults with 2 x 1,200 mg NAC/day over 12 weeks.178 Several of the authors received grants from pharmaceutical companies.
One study found reduced relapse rates to nicotine in rats179, another only in male rats, not in females.180 Only sustained administration of NAC, not transient administration, reduced the risk of relapse to nicotine in rats181
In an RCT, NAC (2 x 2,400 mg / day) helped 37.7 % to withdraw from nicotine, compared to 6.6 % with placebo. Craving was significantly reduced.182 A double-blind study with 2 x 1,500 mg NAC doubled the withdrawal rate.183 In an RCT with 2 x 1,200 mg / day, NAC was ineffective,184 also in a small double-blind study with 1 x 3,600 mg / day over 3.5 days, in which, however, a trend for efficacy was shown.185 An RCT with 1 x 1,800 mg NAC also found no significant effect.186
NAC reduced the risk of relapse to alcohol in zebrafish187188 , mice189 and rats179190 191 192 . NAC prevented stress-induced alcohol relapse in rats.193 Alcohol increased oxidative stress in zebrafish194, NAC reduced this195196 .
NAC did not alter the effect of consumed alcohol in humans.197
Acetylsalicylic acid (ASA, Aspirin) also reduced alcohol consumption in rats with chronic alcohol consumption as well as the relapse rate. A combination of NAC and ACC was particularly effective.198199 Chronic alcohol consumption, such as re-consumption after withdrawal, decreased cortical glutamate transporter GLT-1 by 50%. ACC increased GLT-1 to normal levels. NAC did not affect GLT-1 levels, but may activate the cystine/glutamate transporter xCT and inhibit relapse risk presynaptically.
NAC and ACC together reduced the nicotine relapse rate in rats by 85%.200
Nicotine reduced GLT-1 and xCT gene expression in the PFC. NAC inhibited both, ACC only GLT-1 gene expression. Sulfasalazine, an xCT transporter reuptake inhibitor, prevented the inhibitory effect of NAC on chronic nicotine uptake. The xCT transporter is the main source of extracellular glutamate.
A meta-analysis ( k = 7, n = 245) found a high Effect size of 0.94 (SMD according to Hedges g) of NAC on the reduction of craving.201
NAC was well tolerated177, even at 3,600 mg / day172. No serious side effects were found at 2 x 2,400 mg/day. The most common adverse events were mild gastrointestinal effects (28.9 %) and arthralgia (2.2 %; joint pain without inflammation).202 NAC showed no increased side effects with concomitant alcohol consumption. 197
3.4.18. Eating disorders comorbid with ADHD
3.4.18.1. Binge eating comorbid with ADHD
An analysis of the proteins addressed by Vyvanse showed indications that Vyvanse could also have a positive effect in the treatment of binge eating.53
In the USA, Vyvanse is approved for the treatment of binge eating in adults. At 50 to 70 mg daily for 11 weeks, it reduced the severity and frequency of binge eating episodes50
Lisdexamfetamine has not been systematically studied in children and adolescents with BED, but a retrospective review (N = 25; 12-19 years) suggests some benefit in self-reported binge eating symptoms.30 There are currently no specific recommendations for the use of lisdexamfetamine in children and adolescents with BED in the guidelines for the treatment of eating disorders due to a lack of robust data. Based on clinical practice, lisdexamfetamine may be considered in adolescents with moderate to severe BED and concurrent ADHD without a clinically significant cardiac history in conjunction with other supportive ED treatment (e.g., cognitive behavioral therapy).3,31
3.4.18.2. Bulimia nervosa comorbid with ADHD
A meta-analysis reported that almost all studies reported a positive effect of stimulants on eating behavior in bulimia nervosa.203 However, there are safety concerns due to a lack of data on their use in children and adolescents with bulimia nervosa.50
Stimulants have been reported in children and adolescents with bulimia nervosa:
- cardiovascular complications related to dehydration and electrolyte imbalances as a result of purging
- self-induced vomiting and abuse of laxatives
- orthostatic tachycardia and increased blood pressure when taking stimulants
Treatment with stimulants for ADHD symptoms in comorbid bulimia is conceivable if:50
- Purging behavior is low/very rare
- Laboratory values and hydration status are stable.
3.4.18.3. Anorexia nervosa comorbid with ADHD
Stimulants should be avoided in children and adolescents with anorexia nervosa. There are various risks:204
- additional appetite suppression
- additional weight loss
- Exacerbation of restrictive eating behavior
- Increase in cardiovascular risks including cardiomyopathy (e.g. hypertrophy) in severely malnourished children
If anorexia has subsided, treatment of ADHD symptoms with stimulants can be considered with increased monitoring of appetite, weight and eating behavior.50
A case study reports successful treatment with amphetamine medication without affecting body weight.205
3.4.19. Obesity
Stimulants are known to reduce appetite.
Atomoxetine is approved by the FDA for the treatment of obesity.143
Two years after starting treatment for ADHD with lisdexamfetamine,206
- for severe obesity, the BMI Z-score by -0.41, the BMI percentage of the 95th percentile by -11.2
- for mild to moderate obesity, the BMI Z-score by -0.44 and the BMI percentage of the 95th percentile by -11.1%
- for mild to moderate obesity and overweight, younger children aged 4 to 10 years showed a greater reduction in their BMI
3.4.20. Chronic pain comorbid with ADHD
Chronic pain is a common comorbidity in ADHD
Stimulants such as atomoxetine207 can also reduce chronic pain in people with ADHD.
3.4.21. Enuresis comorbid with ADHD
Duloxetine alleviates comorbid enuresis (bedwetting) and stimulant-induced dysphoria in ADHD. A single case report noted relief of comorbid enuresis (bedwetting), stimulant-induced dysphoria and improvement in cognitive ability in an adolescent with ADHD.208
Atomoxetine increased the number of dry nights by half.209
Imipramine was also recommended for comorbid enuresis.210
3.4.22. Sleep problems and ADHD
People with ADHD often suffer from sleep problems. Stimulants can improve sleep problems (many people with ADHD report that they have significantly improved sleep since taking stimulants). For some people with ADHD (we estimate around 5 to 10%), small doses (14/ to 1/3 of a single daily dose) of immediate release MPH can also improve sleep.
However, stimulants can also cause sleep problems. In most cases, these are single-dose side effects that disappear within the first few weeks. Sometimes it is a consequence of taking the medication too late or taking it for too long due to slower metabolism. For the latter, see Effect and duration of action of ADHD medication
For the treatment of sleep problems with ADHD, see the detailed article Sleep problems with ADHD - treatment
3.4.22.1. Melatonin and stimulants
A Swedish cohort study found that two-thirds of the boys and half of the girls who received melatonin also received ADHD medication211, suggesting a high effectiveness of melatonin for ADHD-related sleep problems.
More on melatonin as a medication for treating sleep problems in ADHD at Melatonin for ADHD
3.4.22.2. Guanfacine (especially in the evening)
One person with ADHD reported good experiences with taking Guanfacine about 5 hours before going to bed. Tiredness is a common side effect of Guanfacine, Guanfacine is a level medication and works almost the whole day, so there should still be a positive effect on the ADHD symptoms the next day.
3.4.22.3. Amitriptyline
Amitryptiline at a dosage of about 1 mg/kg/day when used cautiously showed improvement in sleep, anxiety, impulsivity and ADHD, repetitive behavior and enuresis.129
As with all serotonergic antidepressants, discontinuation side effects must be taken into account and tapering is recommended.
3.4.22.4. Trazodone
Experience has shown that it is helpful for comorbid sleep disorders, especially comorbid anxiety disorders and depression:
3.4.23. Bruxism (teeth grinding) with ADHD
A case study reports a positive effect of buspirone on bruxism caused by atomoxetine.212
ADHD medication can increase bruxism.
3.4.24. CDS / SCT (cognitive disengagement syndrome, sluggish cognitive tempo)
In one study, atomoxetine significantly improved 7 of 9 symptoms of the Kiddie-Sluggish Cognitive Tempo Interview (K-SCT) in CDS / SCT. The symptom improvement in SCT was completely independent of ADHD symptoms.213
SCT people with ADHD are also particularly frequent MPH non-responders. In contrast, the ADHD-HI and ADHD-I subtypes do not differ in the MPH response rate.214
3.4.25. Histamine intolerance / mast cell activation syndrome
One of the few non-histamine increasing ADHD medications mentioned is:
- Viloxazine
- Viloxazine appears to exert a weak competitive inhibition at the histamine receptors H1 and H2 (< 25 %).215
Most common ADHD medications, on the other hand, appear to increase histamine. On the one hand, the active ingredients themselves increase histamine. In addition, co-formulants can have a histamine-increasing effect:
- Atomoxetine216217
- ATX increases extracellular histamine in the PFC
- Winkler reports that with regard to the co-formulants among the ATX preparations, agakalin is said to be less detrimental in histamine intolerance than Strattera218
- Methylphenidate217
- the histamine increase does not appear to be due to diamine oxidase inhibition
- MPH induced diamine oxidase, which increases histamine degradation219
- Winkler reports that with regard to the co-formulants among the MPH preparations, Medikinet immediate release and Kinecteen are said to be less detrimental for histamine intolerance than Ritalin immediate release, Medikinet retard, Medikinet adult, Ritalin LA, Ritalin adult and Concerta218
- Amphetamine220221
- the histamine increase does not appear to be due to diamine oxidase inhibition
- Lisdexamfetamine induced a strong upregulation of DAO mRNA levels in Caco-2 cells, which increases histamine degradation219
- Winkler reports that with regard to the co-formulants among the AMP preparations, Attentin is said to be less detrimental to histamine intolerance than Vyvanse218
- Modafinil222
- Nicotine
- Caffeine
A list of other medications that increase histamine levels can be found at Histaminintioleranz.ch: List of medications.
A person with ADHD with histamine intolerance reported that she could not tolerate AMP and sustained release MPH at all, but could tolerate immediate release MPH in small doses.
Another person with ADHD reported that she was able to control her histamine intolerance reactions caused by ADHD medication by taking cetirizine in the morning.
3.4.26. Gluten intolerance
Co-ingredients in medicines may contain gluten.
Winkler reports that the co-formulants Medikinet immediate release, Medikinet retard, Medikinet adult, Ritalin LA, Ritalin adult, Concerta, Kinecteen, Vyvanse, Attentin, Strattera and Agakalin are safe, while Ritalin immediate release is problematic in the case of gluten intolerance218
3.4.27. Lactose intolerance
Co-ingredients in medicines may contain lactose.
Winkler reports that with regard to the co-formulants Medikinet retard, Medikinet adult, Ritalin LA, Ritalin adult, Vyvanse, Attentin, Strattera and Agakalin are harmless, while Ritalin unretarded, Medikinet unretarded, Concerta and Kinecteen are problematic in the case of lactose intolerance218
3.4.28. Fructose intolerance
Co-ingredients in medicines may contain fructose.
Winkler reports that with regard to the co-formulants Ritalin immediate release, Medikinet immediate release, Vyvanse, Strattera and Agakalin are safe, while Medikinet retard, Medikinet adult, Ritalin LA, Ritalin adult, Concerta, Kinecteen and Attentin are problematic in the case of fructose intolerance.218 Concerta and Kinecteen are now said to be sucrose- and fructose-free (May 2025).
3.4.29. Sorbitol intolerance
Co-ingredients in medicines may contain sorbitol.
Winkler reports that with regard to the co-formulants Ritalin immediate release, Medikinet immediate release, Medikinet retard, Medikinet adult, Ritalin LA, Ritalin adult, Concerta, Kinecteen, Vyvanse, Strattera and Agakalin are safe, while Attentin is problematic in the case of sorbitol intolerance218
3.4.30. Down syndrome
Down syndrome is associated with a significantly increased prevalence of ADHD.
A study of n = 21 Down’s people with ADHD reported a guanfacine responder rate of 48 %. 43 % reported side effects, mostly daytime sleepiness (33 %) and constipation (10 %).223
3.4.31. Emotional dysregulation
ADHD medications also normalize the emotional dysregulation associated with ADHD in adolescents224
Atomoxetine is well suited as a monotherapy for emotional instability 225 158226
Experience has shown that stimulants, e.g. methylphenidate227, not only improve attention and reduce hyperactivity and impulsivity, but also improve emotional self-regulation, which may be at least partly a consequence of reduced impulsivity 228 229 230227
One study found no improvement in the ability to regulate emotions with stimulants.231
Among n = 30 subjects, methylphenidate improved emotional dysregulation in 73.3 % (Hegdes’ g 2.62). Among the non-responders, a further 16.6 % responded to aripiprazole (Hegdes’ g 1.30).232
One study found in adult inpatients with ADHD with severe emotional dysregulation (irritability) that a combination of MPH with mood stabilizers such as lithium, valproate, a combination of lithium and valproate or a combination of lithium and oxcarbazepine could be helpful if monotherapy with atomoxetine was not sufficient.225
Our impression is that stimulants can provide sufficient improvement in cases of moderate emotional dysregulation. If the effect of stimulants is not sufficient, atomoxetine (or guanfacine) is helpful, which has a better effect on emotional dysregulation, but covers the typical ADHD symptoms less well.
In case of doubt, a combination medication of atomoxetine (or guanfacine) with stimulants (each at a correspondingly lower dose) is helpful, as ATX as an all-day medication can then help to improve social life even outside the effective times of the stimulants (family life in the evening), while the stimulants improve drive and attention control during the day. We suspect that these combination medications will establish themselves as standard treatments in the future, even if this requires even more persistent and sensitive dosing.
3.4.32. High blood pressure comorbid with ADHD
Treatment with α-2 agonists (clonidine, guanfacine) may be indicated for high blood pressure.
Clonidine-IR has an even stronger hypotensive (blood pressure-lowering) and bradycardic (pulse-lowering) effect than clonidine-XR and guanfacine-XR233
Guanfacine-XR prolonged the QTc.233
MPH is less effective at increasing blood pressure than atomoxetine:
- Atomoxetine caused an average increase in heart rate of 6.4 beats, Concerta 3 beats and placebo 0.3 beats.234
- Systolic blood pressure increased on average by 3.7 with atomoxetine, by 2.4 with Concerta and by 1.3 with placebo.234
- Diastolic blood pressure increased on average by 3.8 with atomoxetine, by 3.1 with Concerta and by 0.4 with placebo.234
A Swedish long-term study over 14 years with n = 62,060 participants on the risks of certain cardiovascular diseases due to long-term ADHD medication use found, in each case compared to no use:235
- for high blood pressure
- 72% increased risk when taken for 3 to 5 years
- 80% increased risk if taken for more than 5 years
- for arterial diseases
- 65% increased risk if taken for 3 to 5 years
- 49% increased risk if taken for more than 5 years
Amphetamines, atomoxetine, lisdexamfetamine, methylphenidate and viloxazine increase hemodynamic values in children, adolescents and adults. The mean increase compared to placebo was (decrease due to guanfacine and lowest and highest value of the increase in each case) (meta-analysis, k = 103, n = 13,315 children and adolescents, n = 9,387 adults)236
- Children and young people:
- systolic blood pressure
- Guanfacine: - 2.83
- Atomoxetine: 1.07
- Methylphenidate: 1.81
- diastolic blood pressure
- Guanfacine: - 2.08
- Amphetamines: 1,93
- Methylphenidate; 2.42
- Pulse
- Guanfacine: - 4.06
- Viloxazine: 2.79
- Atomoxetine: 5.58
- systolic blood pressure
- Adults
- systolic blood pressure
- Guanfacine: - 10.1
- Methylphenidate: 1.66
- Amphetamines; 2.3
- diastolic blood pressure
- Guanfacine: - 7.73
- Methylphenidate: 1.6
- Lisdexamfetamine: 3.07
- Pulse
- Guanfacine: - 6.83
- Methylphenidate: 4.37
- Viloxazine: 5.8
- systolic blood pressure
3.4.33. Heart problems comorbid with ADHD
A Swedish long-term study over 14 years with n = 62,060 participants on the risks of certain cardiovascular diseases due to long-term ADHD medication use found, in each case compared to no use:235
- no increase in risk of cardiac arrhythmia, heart failure, ischemic heart disease, thromboembolic disease or cerebrovascular disease
- for cardiovascular diseases
- 20% increased risk due to taking methylphenidate for 3 to 5 years
- 19% increased risk from taking methylphenidate for more than 5 years
- 23% increased risk from taking lisdexamfetamine for 2 to 3 years
- 17% increased risk from taking lisdexamfetamine for more than 3 years
- 7% increased risk from taking atomoxetine in the first year
A long-term Swedish study over 15 years with n = 112,605 subjects and n = 563,024 matched controls aged 5 to 30 years (median 20 years) found that ADHD medications increased the risk of cardiac events:237
- by 63 % for total cardiac events
- by 166 % for indeterminate arrhythmias
- by 10 % for long-term medication compared to short-term medication
The risk of cardiac arrest and defined arrhythmias was unchanged.
Unfortunately, the study did not include ADHD cases without medication, so it remains unclear how strong the influence of ADHD and how strong the influence of ADHD medication was.
ADHD itself increases risk factors for cardiovascular problems.238
3.4.34. Epilepsy comorbid with ADHD
Methylphenidate appears to be the best option for treating ADHD in epilepsy and has a low risk of worsening seizures.239240 In addition to MPH, the administration of AMP or atomoxetine is also possible with a low risk.241
The tendency to convulsions should be well treated before stimulants are administered.50
Epilepsy medications themselves can worsen or improve the symptoms of ADHD.
A worsening of ADHD symptoms has been reported for the following epilepsy medications:50
- Valproate (high evidence of a deterioration in attention)242243
- Phenobarbital
- Phenytoin
- Topiramate
- Zonisamide
- Perampanel
- Ethosuximide
Improvement in ADHD symptoms has been reported for the following epilepsy medications:50
- Lacosamide
- Carbamazepine
- Lamotrigine
- more on this under Lamotrigine for ADHD
Whether ADHD symptoms are improved or worsened is an open question:50
- Levetiracetam242
3.4.35. Dissociative conditions comorbid with ADHD
Positive effects of sustained release MPH on dissociative states in comorbid ADHD have been reported in several individual cases.244 One case study reports a helpful effect of mixed amphetamine salts.245
3.4.36. Raynaud
ADHD medications can trigger or exacerbate Raynaud’s.246 Amfetamine medications appear to be more commonly implicated than methylphenidate and atomoxetine; guanfacine was not mentioned.247 Reducing the dose or changing the active ingredient has been reported to help. However, (very rare) cases of serious Consequences have also been mentioned. Raynaud’s was observed less frequently with atomoxetine than with stimulants.
We are aware of cases in which Raynaud’s was triggered by parallel caffeine consumption while taking ADHD medication and disappeared when the caffeine was discontinued.
3.4.37. Seniors with ADHD
One study found a short-term increase in cardiovascular problems for stimulants in ADHD; long-term use was possible without any problems.248
Another study found (on average) an increase in pulse rate, but no increase in blood pressure and otherwise no night-time effects for the use of stimulants in the elderly. The clearance of AMP was slightly reduced249, so that a lower and slower dosage is recommended.
3.4.38. Mental disability
People with intellectual disabilities often require a lower dosage of medication or are more sensitive to side effects.25050 In addition, people with ADHD are often less able to communicate side effects.
4. Choice of medication under further conditions
4.1. Giftedness
Highly gifted people are said to respond better to amphetamine medication than to MPH.251
Giftedness is not a comorbidity.
4.2. EEG: Alpha, beta and theta values increased
- Atomoxetine unsuitable
One study examined the EEG structure of atomoxetine responders and non-responders. According to the study, atomoxetine works better in those who have increased alpha and delta power in the frontal and temporal areas and in whom there are no deviations in the beta and theta bands. Atomoxetine non-responders, on the other hand, exhibit reduced absolute power in all EEG frequencies or increased alpha and simultaneously increased beta power. Atomoxetine caused a long-term normalization of the excessive alpha and delta values, while these remained unchanged in non-responders. Atomoxetine appeared unsuitable in the case of simultaneously elevated alpha, beta and theta values.252
With increased alpha and delta power frontally and temporally and unchanged power in the beta and theta bands, atomoxetine should not be unsuitable. This does not indicate whether amphetamine drugs, MPH and guanfacine are not preferable due to their higher Effect size.
4.3. COMT Met-158-Met
In the presence of a COMT Met-158-met polymorphism, amphetamine drugs are said to be unsuitable.
In carriers of the COMT Val-158-Met gene polymorphism, amphetamine increased the efficiency of prefrontal cortex function in subjects with presumably low dopamine levels in the PFC. In contrast, in carriers of the COMT Met-158-Met polymorphism, amphetamine had no effect on cortical efficiency at low to moderate working memory load and caused deterioration at high working memory load. Individuals with the Met-158-Met polymorphism appear to be at increased risk for an adverse response to amphetamine.253
4.4. Pregnancy
AMPH, amphetamine drugs and atomoxetine cross the placenta 254 255 256 257258
MPH, AMP as an ADHD medication, bupropion as an antidepressant or guanfacine as an antihypertensive in pregnancy did not increase the rate of serious congenital anomalies.259254
MPH increased the risk of cardiovascular problems in the child from 1.07% to 1.7% (+59% at low absolute risk).254
There is very little data on atomoxetine and guanfacine in pregnancy.259
Clonidine as an antihypertensive in pregnancy showed no serious side effects 259254
Most ADHD medications are excreted in breast milk, but the concentrations in the infant’s blood are very low, with the exception of clonidine and amphetamines. Breastfeeding while taking clonidine and amphetamines is therefore contraindicated.259
Methylphenidate and atomoxetine did not change the already increased risk of spontaneous miscarriage due to ADHD.260 (meta-analysis, n = 30,830).261 Likewise, they did not increase the risk of congenital malformations to any relevant extent (+ 14%) (meta-analysis, n = 30,830).261
MPH and ATX increased the risk of an Apgar score below 10 by 106% ((aRR 2.06), while children of women with ADHD who did not take these drugs during pregnancy had no increased risk (aRR 0.99).262
Methylphenidate is said to be relatively safe during pregnancy.263
4.5. Breastfeeding
Amphetamines pass into breast milk.264
On the 10th and 42nd day after delivery, amphetamine levels in breast milk were 3 and 7 times higher than in maternal plasma. Amphetamine was also detected in the infant’s urine. High doses of amphetamines can impair milk production.265266 The American Academy of Pediatrics (AAP) advises against amphetamine medication during breastfeeding.267
While methylphenidate is relatively safe during breastfeeding, amphetamines and lisdexamfetamine are contraindicated during breastfeeding due to possible accumulation in the child.263
5. Different modes of action of ADHD medication
5.1. Binding affinity of MPH, AMP, ATX to DAT / NET / SERT
The active ingredients methylphenidate (MPH), d-amphetamine (d-AMP), l-amphetamine (l-AMP) and atomoxetine (ATX) bind with different affinities to dopamine transporters (DAT), noradrenaline transporters (NET) and serotonin transporters (SERT). The binding causes an inhibition of the activity of the respective transporters.268
| Binding affinity: stronger with smaller number (KD = Ki) | DAT | NET | SERT |
|---|---|---|---|
| MPH | 34 - 200 | 339 | > 10,000 |
| d-AMP (Vyvanse, Attentin) | 34 - 41 | 23.3 - 38.9 | 3,830 - 11,000 |
| l-AMP | 138 | 30.1 | 57,000 |
| ATX | 1451 - 1600 | 2.6 - 5 | 48 - 77 |
5.2. Effect of MPH, AMP, ATX on dopamine / noradrenaline per brain region
The active ingredients methylphenidate (MPH), d-amphetamine (AMP) and atomoxetine (ATX) alter extracellular dopamine (DA) and noradrenaline (NE) to different degrees in different regions of the brain. Table based on Madras,268 modified.
| PFC | Striatum | Nucleus accumbens | Occipital cortex | Lateral hypothalamus | Dorsal hippocampus | Cerebellum | |
|---|---|---|---|---|---|---|---|
| MPH | DA + NE (+) |
DA + NE +/- 0 |
DA + NE +/- 0 |
||||
| AMP | DA + NE + |
DA + NE +/- 0 |
DA + NE +/- 0 |
||||
| ATX | DA + NE + |
DA +/- 0 NE +/- 0 |
DA +/- 0 NE +/- 0 |
DA +/- 0 NE + (rat) |
DA +/- 0 NE + (rat) |
DA +/- 0 NE + (rat) |
DA +/- 0 NE + (rat) |
Note: the NET binds dopamine in the PFC slightly better than noradrenaline, the DAT binds dopamine much better than noradrenaline.
However, atomoxetine only increases dopamine in the PFC and not everywhere where it binds to the NET, so there appears to be a special mechanism of action here.
6. Duration of action of various ADHD medications
In our experience, the actual duration of action is generally shorter than stated. This is particularly clear with Vyvanse.
See under Duration of action of medication for ADHD
7. Approval status of ADHD medications
This section has been moved to a separate post: Approval status of ADHD medications
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