Page numbers printed in boldface type refer to tables and figures.
Accreditation Council for Graduate Medical Education,247
Activity scores, and metabolizer phenotypes,118–119
Adaptive Cognitive Evaluation (ACE) battery,62
Affective circuits, and hyperreactivity of amygdala in depressive and anxiety disorders,4–5.
See also Neural circuits
Affective Go–No Go task,185–186,
187Alarm, and inflammation-induced activation of neural networks,101
American Society of Health System Pharmacists,121
Amitriptyline,119, 125
Amygdalaaffective circuits and hyperactivity of in depressive or anxiety disorders,4–5
emotional regulation circuitry and bipolar disorder,35, 37, 38
neural circuitry of fear and threat,148,
149, 150, 151–152, 154–155
Anhedoniahypoactivation of ventral striatum in depressive and anxiety disorders,5
inflammation and reward circuitry in depressed patients,100
kappa opioid receptor (KOR) antagonists and,8
Anterior cingulate cortex (dACC), hypoactivation of in depression and social anxiety,5
Antidepressants.
See also Selective serotonin reuptake inhibitors; Tricyclic antidepressants
inflammatory markers as predictors for treatment response to,101–104
neuroimaging biomarker studies of sensitivity and specificity,7–8
pharmacogenetic testing and,122
research of precision psychiatry for depression and,xix
Antipsychotics, and pharmacogenetic testing,122
Anxiety, and impaired facial emotion recognition,53
Anxiety disorders.
See also Generalized anxiety disorder
diagnostic subtyping of by neural circuit dysfunction,4–7
inflammation and,101
information processing impairments and,56,
60precision psychiatry and research on,227–229
transcranial magnetic stimulation and,21
treatment planning and neural circuit dysfunction,7–8
Apical dendritic tufts, and disorganized symptoms of schizophrenia,80
Aripiprazole,119Arousal, and inflammation-induced activation of neural networks,101
Artificial intelligence.
See Machine learning
Assessment, of information processing impairments,62–64
Association for Molecular Pathology,121
Associative learning, and Pavlovian threat conditioning,154
Atomoxetine,119, 122
Attention circuits, and cognitive or concentration features of depression and anxiety,5.
See also Neural circuits
Attentional control, and categories of psychiatric disorders,53,
54–
56Attention bias modification training (ABMT), for information processing impairments,58,
60, 61
Attention deficit/hyperactivity disorder (ADHD),55Automated relevance detection,169
Automatic relevance determination (ARD),173
BAC App,62
“Beam F3” approach, to transcranial magnetic stimulation,24
Behavior.
See also Information processing impairments
influence of inflammation on,98–101
model-based learning and habitual,202
Behavioral activation, and depression,181–182
Behavioral tasks, and information processing deficits,53
Big data, and precision medicine,221, 222–223
Binge eating, and model-free learning,185.
See also Eating disorders
Biological Psychiatry (journal),247
Biomarkers.
See also Episode markers; Inflammatory biomarkers; Pharmacogenetic testing; State-sensitive biomarkers; Vulnerability markers
evaluation process for,105,
106machine learning and risk of bipolar disorder,39, 41–42, 43, 222
Biopsychosocial model, of mental illness,180
Biotypes, and heterogeneity of mood and anxiety disorders,6Bipolar disordercurrent problems in diagnosis of,33, 34–35
future directions for research on neuroimaging and,42–43
machine learning and biomarkers for,39–42, 222
neural measures and prediction of,37–39,
41neural models of,35–37
prediction of response to mood stabilizers,225, 226
prevalence of,34
Blood markers.
See Biomarkers
Brain Engagement (BrainE) platform,62–63
Brain mapping, of person-specific features related to psychopathology,138–139
Brain Research through Advancing Innovative Neurotechnologies initiative,220
Broca, Paul,242
Bupropion,103, 104, 225
Cade, John,243
Cambridge Neuropsychological Test Automated Battery (CANTAB),62
Carbamazepine,119, 121
Carbon dioxide reactivity, and panic disorder,227–228
Cartesian dualism,242
Case studies.
See Clinical illustrations
Catatonia, and psychosis,247
Centers for Medicare & Medicaid Services,105
Chlorpromazine,243
Citalopram,119, 126, 225, 226
Clinical illustrationsof clinical translation of neuroscience-informed precision psychiatry,10–11
of inflammatory markers as predictors of treatment response,101–104
of inflammatory markers for subgrouping of psychiatric patients,105–107
of information processing impairments,61–62,
63of latent variable models,173
of pharmacogenetic testing,125–126,
127of state-sensitive biomarkers for schizophrenia,78–85
of transcranial magnetic stimulation for treatment-resistant psychiatric disorders,23–24
Clinical Laboratory Improvement Amendments of 1988,105
Clinical Pharmacogenetics Implementation Consortium (CPIC),122
Clinical trials, of inflammatory biomarkers,107–108
Clomipramine,119Cognitive-behavioral therapy (CBT)bipolar disorder and,38
cortical hyperactivity and treatment of social anxiety disorder,229
description of,203
empirical evidence for effectiveness of,200
exposure-based methods of,205–208, 211–212
information processing impairments and,57–58
internal schemas and,211
learning and goals of,199
neuroimaging studies of response to in panic disorder,228–229
personalization of,180
reinforcement learning and,204–205, 209
research on precision psychiatry for depression and,xix
Cognitive control circuit, and dorsal components of lateral prefrontal cortex,5
Cognitive impairments.
See Information processing impairments
Cognitive restructuring, and cognitivebehavioral therapy,203
Cognitive trainingfor information processing impairments,59–
60,
63rACC activity in major depressive disorder and,136
Combinatorial pharmacogenetic tests,221–222
Combining Medications to Enhance Depression Outcomes (CO-MED) studies,225
Computational psychiatry.
See also Latent variable models; Machine learning
data-analytic approaches and,182–183
definition of,167–168
depression and,181–182
future directions in,191–192
task-based measurements and,183–191
Computerized targeted cognitive training (TCT),59Concave face stimuli, and schizophrenia,82
Conditional stimulus (CS) and conditioned response (CR), and Pavlovian conditioning,147, 148,
149, 150, 201
Connectome, use of term,3
Contextual modulation process, in schizophrenia,78–80
Continuum formulations, of psychiatric diagnoses,170
Cortical connectivity, modulation of by transcranial magnetic stimulation,22
Corticotropin-releasing hormone (CRH), and threat memories,152
Cost.
See also Public health computational methods and,183
as global problem for mental health care,220
of pharmacogenetic testing,123, 127
of transcranial magnetic stimulation treatments,26, 27
C-reactive protein (CRP), and inflammatory biomarkers,101, 102, 105–107, 110
Cross-validation, and computational psychiatry,182–183
Cytochrome P450 (CYP) metabolizing enzymes, and pharmacogenetic testing,118,
120Cytokines, inflammatory,99–100
Data-analytic approaches, and computational psychiatry,182–183.
See also Big data; Machine learning
Decision curve analysis (DCA), and transcranial magnetic stimulation,26–27,
28Deep brain stimulation (DBS),xix, 65
Deep phenotyping, and person-specific treatment prediction,139
Default mode circuit, and distinct subtypes of depression,4
Default mode network (DMN), and transcranial magnetic stimulation,22
Delay discounting, and reliability of task-based measurements,190
Delusionsschizophrenia and,58, 82
seizures and treatment of,247
Dementia praecox,242, 247
Depression.
See also Major depressive disorder; Mood disorders
computational components of,181–182
diagnostic subtyping of by neural circuit dysfunction,4–7
inflammatory biomarkers and,97–98, 100, 101–104, 106, 108–110
information processing deficits and,53,
54,
56,
60latent variable models and,171
progress of research on precision psychiatry for,xviii–xix
transcranial magnetic stimulation and,21, 22, 25
treatment planning and neural circuit dysfunction,7–8
Depth inversion illusions (DIIs),82, 83,
84Desipramine,119Diabetes, as analogy for assessment of information processing impairments,63, 64
Diagnosis, of psychiatric disorders.
See also Assessment; DSM system
bipolar disorder and,33, 34–35
latent variable models and,170
Diplotype, and metabolizer phenotypes,118
Discovery Clinic for Neuroscienceinformed Precision Psychiatry,9–12
Discrete theory, of psychiatric diagnoses,170
Disorganized symptoms, of schizophrenia,78–80
Dopamineinflammation and,99, 100, 104, 108, 110
prediction errors and,203, 210
Dorsolateral prefrontal cortex (DLPFC)hypoactivation of in depression and social anxiety,5
transcranical magnetic stimulation and,20, 21–22, 25
Dorsomedial cortex, and transcranial magnetic stimulation,25
Doxepin,119DSM system, development and revisions of,244
Eating disorders, role of precision psychiatry in treatment of,xxvi.
See also Binge eating
Ebbingham illusion task,80,
81Economics.
See Cost
Education.
See Medical education; Psychoeducation; Training
Electroconvulsive therapy (ECT), and inflammatory biomarkers,102,
103, 110
Electroencephalogram (EEG), and transcranial magnetic stimulation,22
Electronic medical records (EMRs),222–223
Electroretinography (ERG), and negative symptoms of schizophrenia,83, 85,
86Emotional regulation circuitry, and bipolar disorder,35, 36, 37, 38–39, 40.
See also Neural circuits
Endotoxin, and reward networks,100
English Longitudinal Study of Ageing,106
Environmental demands, and information processing impairments,57
Epidemiology.
See Prevalence
Epigenome, and posttraumatic stress disorder,153–154
Episode markers, for schizophrenia,78
Escitalopram,104,
119, 126, 225, 226
Establishing Moderators and Biosignatures of Antidepressant Response for Clinical Care (EMBARC),135, 136
Expectancy violation, and exposure therapy,206
Exposure and response prevention (EXRP), and obsessivecompulsive disorder,207–208
Extinction memory, and posttraumatic stress disorder,148, 151–152
Factor mixture modeling,170
False alarms, and cognitive restructuring,203
Family history, of bipolar disorder,34.
See also Genetics
Fear.
See also Threat
individual differences in processing of,155
translational insights into neural circuitry of,148, 150–151
use of term,146
“5 cm rule,” for transcranial magnetic stimulation,21, 24
FK506 binding protein 51 (FKBP5), and posttraumatic stress disorder,153–154
Fluvoxamine,119Functional connectivity, transcranial magnetic stimulation and patterns of in depression,23
Functional magnetic resistance imaging (fMRI).
See also Neuroimaging
biotype approach to subtyping of depressive and anxiety disorders,4
Discovery Clinic for Neuroscienceinformed Precision Psychiatry and,9–12
neural circuitry of fear and threat,149transcranial magnetic stimulation and,25
GABA, transcranial magnetic stimulation and elevations of in prefrontal cortex,23
Gabapentin,125
Gage, Phineas,242
Gall, Franz Joseph,242
Gatekeeper model, and pharmacogenetic testing by commercial laboratories,122
Genderinflammatory response and,101
posttraumatic stress disorder and,153
Generalized anxiety disorder.
See also Anxiety disorders
neural circuit dysfunction and,4
pharmacogenetic testing and,125–126,
127Genetics.
See Family history; Genotypes; Pharmacogenetic testing
guidelines for drug selection and dosing,121
posttraumatic stress disorder and,152–154
Genome-Based Therapeutic Drugs for Depression study,225–226
Genome-wide association studies (GWASs), of posttraumatic stress disorder,152–153, 156
Genomics Used to Improve DEpression Decisions (GUIDED) study,221
Genotypes, and metabolizer phenotypes,118
Geschwind, Norman,243
Glutamateinflammation and,99, 101, 108
transcranial magnetic stimulation and levels of in DLPFC,23
Gordon, Joshua,248
Group factor analysis (GFA),173
Guidelinesfuture clinical trials of inflammatory markers,107–108
genetic for drug selection and dosing,121
Hallucinations, and schizophrenia,82
Haloperidol,119Health, definition of by World Health Organization,229
Hierarchical Taxonomy of Psychopathology (HiTOP) model,171
Hippocampusneural circuitry of fear and threat,148, 150
transcranial magnetic stimulation and,23
HLA system, and pharmacogenetic testing,119, 121
Hypercapnia,227
Hyperconnectivity and hypoconnectivity, of default mode circuit,4
Hyperventilation, and panic disorder,228
Illusion effects, and schizophrenia,82–83
Imaginal exposures, and exposure therapy,205, 208
Imipramine,119Incremental predictive validity, of rACC activity in major depressive disorder,135
Individual-level risk, for development of bipolar disorder,33
Indoleamine 2,3-dioxygenase (IDO),100
Inflammatory biomarkersclinical illustration of prediction of treatment response to antidepressants,101–104
clinical illustration of subgrouping of psychiatric patients,105–107
development of research on,97–98
guidelines for future clinical trials of,107–108
implications for clinical practice,108–110
influence of on behavior,98–101
Infliximab,103, 106–107
Information-guided adaptive optimization, and task-based measurement,190
Information processing impairments assessment of,62–64
clinical case illustration of,61–62,
63psychiatric disorders and types of,52–57
recognition of role in psychiatric disorders,51–52
treatment of,57–62
Information processing profile,57
Information theoretic metrics, and disorganized symptoms of schizophrenia,80
Inhibitory control, and information processing abnormalities in psychiatric disorders,55–56
Institute of Medicine (IOM),105
Instrumental conditioning, and reinforcement learning,201–202
Internal distractions, and information processing abnormalities in psychiatric disorders,55–
56International Selective Serotonin Reuptake Inhibitor (SSRI) Pharmacogenomics Consortium trials,227
International Society of Psychiatric Genetics,121
International Study to Predict Optimized Treatment for Depression (iSPOT-D),7, 8
Interventional psychiatry, and use of complex data to guide decision making,65
Jackson, John Hughling,242
Jittered Orientation Visual Integration (JOVI),79JNJ-67953964,8
Kappa opioid receptor (KOR) antagonists,8
Ketamine,102,
103, 110
Kraepelin, Emil,242, 247
Kynurenic acid, and inflammatory cytokines,100
Large-scale neural circuit, use of term,3
Latent variable models.
See also Computational psychiatry
clinical illustrations of,173
current applications of,170–172
future directions in research on,173–174
machine learning and,172, 174
recent developments in explanatory models and,169–170
Late positive potential (LPP), and attentional bias in depression,53,
54Learning.
See also Machine learning; Medical education; Model-free learning; Prediction learning; Reinforcement learning
as basis for mental health treatment,199–200
understanding rates of,209–210
Life span, and bipolar disorder,34
Lifestyle measures, and reduction of inflammatory response,109
Lithium,38, 225, 226, 243
Machine learning.
See also Computational psychiatry
biomarkers for risk of bipolar disorder,39, 41–42, 43
latent variable models and,172, 174
optimal treatment selection for major depressive disorder and,137, 138
potential uses of in precision psychiatry,224–225
predictive model for suicidal behavior and,222
Major depressive disorder (MDD).
See also Depression
big data and study of outcomes in patients with,222
clinical translation of neuroscienceinformed precision psychiatry,10–11
computational psychiatry and,181
future directions in research on treatment prediction biomarkers,138–139
neural circuit dysfunction and,4
pharmacogenetic testing and,126, 221
precision psychiatry and therapeutic outcome of,225–226
prevalence of,133–134
rACC and prediction of treatment response,134–137
transcranial magnetic stimulation and,22
MATRICS (Measurement and Treatment Research to Improve Cognition in Schizophrenia),61
Mayo Clinic Pharmacogenomics Research Network Antidepressant Medication Pharmacogenetic Study,227
Medical educationfuture of precision psychiatry and,245–248
integration of Discovery Clinic with resident training programs,11–12
Memory, and threat response in posttraumatic stress disorder,147–148.
See also Extinction memory; Working memory
Metabolic dysregulation, as source of inflammation,108
Metabolizer phenotypes, and pharmacogenetic testing,118–119
Methamphetamine dependence, and model-free learning,185
Mindfulness-based strategies, for information processing impairments,58
Mindstrong,62
Minocycline,103Model-free learningprediction errors and,185
reinforcement learning theory and,202, 204, 205, 210
Monoamine oxidase inhibitors,243
Mood disorders, and clinical illustration of applications of precision psychiatry,225–27.
See also Depression
Mooney Faces task,79Motor threshold (MT), for transcranial magnetic stimulation,20
Multiple indicator multiple cause, as latent variable model,170
National Institute of Mental Health,248
National Institutes of Health,105
National Neuroscience Curriculum Initiative (NNCI),245–247
Negative affect circuit, and dysfunction of in anxiety and depressive disorders,4–5, 7
Negative symptoms, of schizophrenia,83, 85
Network, use of term in neuroimaging,3
Neural circuits.
See also Emotional regulation circuitry; Reward processing circuitry
dysfunction of in anxiety and depressive disorders,4–5, 7
inflammation and targeting of specific,100–101
information processing impairments and,52
Neurocognition.
See Information processing impairments
Neurodevelopmental disorders, role of precision psychiatry in treatment of,xxvi
Neuroimaging, of neural circuits.
See also Deep brain stimulation; Functional magnetic resonance imaging; Transcranial magnetic stimulation
diagnostic subtyping of depression and anxiety disorders,4–7
future directions in research on,12–13
neural models of bipolar disorder and,35–37, 42–43
Pavlovian conditioning in posttraumatic stress disorder150–151
prediction of bipolar disorder and,37–39,
41treatment planning for depressive and anxiety disorders,7–8
treatment response to cognitivebehavioral therapy for panic disorder,228–229
Neuroligin-1, and posttraumatic stress disorder,152
Neuronavigation, and transcranial magnetic stimulation,24–25
Neurophysiology.
See Amygdala; Biomarkers; Hippocampus; Neural circuits; Prefrontal cortex; Rostral anterior cingulate cortex
Neuroscienceadvancements in precision psychiatry and,3
definition of precision psychiatry and,xxiv
history of,242, 243
medical education for precision psychiatry and,245–248
Neurotransmitters, and inflammation,99–100, 108.
See also Dopamine
NMDA, and inflammation,99–100
Norepinephrine, and inflammation,99
Nortriptyline,103, 104,
119, 226
Nucleus accumbens, and positive affect reward circuit,5
Obsessive-compulsive disorder (OCD)deep brain stimulation for treatment-refractory,65
emerging evidence for role of precision psychiatry in treatment of,xxvi
exposure and response prevention in,207–208
model-free learning and,185
Oncology, and precision medicine,180
Orbitofrontal cortex, and transcranial magnetic stimulation,25
Outcome-predictive models, and machine learning techniques,225
Oxcarbazepine,119, 121
Panic disorder, precision psychiatry and treatment of,227–229
Parietal cortex, hypoactivation of in depression and social anxiety,5
Paroxetine,119, 125, 126
Patient-specific information, and selection of treatments for major depressive disorder,138
Pavlovian conditioningposttraumatic stress disorder and,146–147, 150, 154–155, 207
reinforcement learning and,202–203, 207
Perceptual organization, and schizophrenia,87
Personal digital technologies,223
Personalized medicine in psychiatry (PMP).
See Precision psychiatry
Pharmacogenetic testing.
See also Combinatorial pharmacogenetic tests
clinical case illustrations of,125–126,
127commercial laboratories and,121–122
criteria for,122–123,
124current evidence for,118–119
future of,127
goals of precision psychiatry and,117
Pharmacogene Variation Consortium (PharmVar),118
Pharmacotherapy.
See Antidepressants; Antipsychotics
PharmGKB,121
Phenytoin,119, 121
Phrenology,242
Pick, Arnold,242
Pimozide,119Point-of-care testingpharmacogenetic testing and,123, 124
for rapid CRP assessment and clinical decision making,105–106
Positive affect reward circuit, hypoconnectivity of in depressive and anxiety disorders,5, 8.
See also Reward processing circuitry Positive symptoms, of schizophrenia, 82–83
Posttraumatic stress disorder (PTSD)adaptive threat processing and dysfunction,146–148
attention bias modification training and,61
cellular, molecular, and genetic mechanisms of fear and,151–154
future directions in research on neural circuitry and treatment of,155–157
impact and prevalence of,145–146
inflammation-induced activation of neural networks and,101
Pavlovian threat conditioning and,146–147, 150, 154–155
prolonged exposure therapy for treatment of,205–207
transcranial magnetic stimulation and,21, 22
translational insights into neural circuitry of,148, 150–151
Pramipexole,10
Precision Medicine Initiative,220
Precision psychiatry.
See also Biomarkers; Computational psychiatry; Neuroimaging; Neuroscience; Translational neurobiological approaches
assessment and treatment of bipolar disorder,34, 43
clinical illustrations of,225–229
depression and,xviii–xix
explanation of concept,xvii, xxiv, 75, 179–180
future directions of research on,229–230
future of precision medicine in psychiatry and,221–225
medical education for,245–248
as new approach to psychiatry,220
pharmacogenetic testing and goals of,117
progress in research on,xviii, xxv–xxvii
reinforcement learning theory and,208–209
transcranial magnetic stimulation and,27
treatment of posttraumatic stress disorder and,155, 156–157
visual science and,87
Prediction.
See also Treatment response bipolar disorder and neural measures for,37–39,
41inflammatory markers and response to antidepressants,101–104
major depressive disorder and research on,134–139
Prediction errors, and reinforcement learning,200, 203, 210, 212
Prediction learning, and reinforcement learning theory,201
Preemptive testing approach, to pharmacogenetic testing,123,
124Prefrontal cortex.
See also Dorsolateral prefrontal cortex
neural circuitry of fear and threat,148, 150
neural models for prediction of bipolar disorder and,38
reward processing circuitry and,35,
36, 37
Prevalenceof anxiety disorders,227
of bipolar disorder,34
of major depressive disorder,133–134
of posttraumatic stress disorder,145
Processing speed, and information processing deficits,53,
55–
56Psychiatric disorders.
See also Prediction; Psychiatry; Treatment resistance; Treatment response; Treatment selection;
specific disordersbiopsychosocial model of,180
impact of stress on,180
inflammatory biomarkers and subgrouping of patients,105–107
Psychiatric Neuromodulation Clinic (Providence VA Medical Center),23
Psychiatry.
See also Computational psychiatry; Interventional psychiatry; Precision psychiatry; Psychotherapy
history of,241–244
inadequacies of present system,219–220
reliance of current treatment selection on trial and error,xvii–xviii
Psychoeducation, and visual hallucinations,247
Psychology, and latent variable models,170
Psychotherapy, and reinforcement learning models,209
Psychotic disorders.
See also Schizophrenia
categorization of psychosis and,247
information processing deficits and,55,
59p38 mitogen activated protein kinase (MAPK),99
Public health, and trauma and stressrelated disorders,145, 155.
See also Cost
Quetiapine,125
Quinolinic acid, and glutamate release,100
Q value, and exposure and response prevention,207
Random controlled trials (RCTs), of treatment prediction for major depressive disorder,137
Reactive approach, to pharmacogenetic testing,123,
124Reactivity, and negative symptoms of schizophrenia,83, 85
Real-time data collection, and smart wearable devices,223–224
Reinforcement learning (RL)benefits of for precision psychiatry,208–209
cognitive-behavioral theory and,204–207
explanation of theory,202–203
information processing abnormalities in psychiatric disorders,55–
56prediction errors and,200, 203, 210, 212
rates of learning in,209–210
theoretical framework for,200
Reliability, of task-based measurements,189–191
Remission, estimates of rates for transcranial magnetic stimulation,26
Research Domain Criteria project,220
Resident training programs.
See also Medical education
education in precision psychiatry and,246–247
integration of Discovery Clinic with,11–12
Reward processing circuitry.
See also Neural circuits; Positive affect reward circuit
bipolar disorder and,38–39, 35,
36, 37,
40inflammation and,100–101
Reward responsivity, and information processing abnormalities in psychiatric disorders,55–
56Risk factorsfor bipolar disorder,33
for posttraumatic stress disorder,156
for suicidal behavior,222
Rostral anterior cingulate cortex (rACC), and prediction of treatment response in major depressive disorder,134–137
Royal College of Pathologists of Australia,121
Royal College of Psychiatrists,247
Salience circuit, hypoconnectivity of and symptom severity of anxiety disorders,4
Sample size, and treatment prediction for major depressive disorder,137
Schemas, and cognitive-behavioral therapy,211
Schizophreniaepisode markers for,78
information processing deficits and,53, 58
recognition of cognitive failure in,52
state-sensitive biomarkers for,78–85, 87
transcranial magnetic stimulation and,21
vulnerability markers for,77
Selective serotonin reuptake inhibitors (SSRIs)development and introduction of,243
inflammatory markers and response to,102,
103machine learning and prediction of response to,227
negative affect circuit as predictor of response to,7
Sequenced Treatment Alternatives to Relieve Depression (STAR*D),225, 227
Serotonin, and inflammation,99
Serotonin-norepinephrine reuptake inhibitors,103, 104
Sertraline,7,
119, 126
Severe cutaneous adverse reactions (SCARs), and gene-drug pairs,121
Sex differences.
See Gender Sirukumab,
103, 106
Sleeper effects, of cognitive interventions for information processing impairments,58
SMART (specific, measurable, achievable, realistic, and temporally defined),181–182
Smartphones, and smart wearable devicesdepth inversion illusion tasks and,83,
84real-time data collection by,223–224
Smoking cessation, and conventional antidepressants,104
Social anxiety disorder,5, 229
Social cognitive training (SCT), for information processing impairments,59Social-emotional cognition, and information processing abnormalities in psychiatric disorders,55–
56Stanford Translational Precision Mental Health Clinic,12
Stanford University,9, 11–12
Star alleles, and genotype,118
State-sensitive biomarkers, for schizophrenia,78–85, 87
Stress, impact of on mental illness,180
Stroop measurement task,188
Subgenual cingulate cortex, and transcranial magnetic stimulation,23
Subjective interpretation, and cognitive-behavioral therapy,203
Suicide, and suicidal behavior bipolar disorder and,34
machine learning and predictive model for,222
Task-based measurements, and computational psychiatry,183,
184–
185, 185–186,
187–
188, 188–191
TestMyBrain,62, 64
Threat, and posttraumatic stress disorder,146–148.
See also Fear
Threshold probability, and transcranial magnetic stimulation,26–27,
28Training, of clinicians to interpret and act on information processing impairment data,64–65.
See also Medical education
Trait-state-occasion model, of latent variables,170
Transcranial magnetic stimulation (TMS)clinical illustration of for treatment resistant psychiatric disorders,23–24
current knowledge and approaches to,20–23
emergence and development of,20
future directions for research on,24–27
major depressive disorder and,135, 136
treatment resistant depression and,8, 11
Translational neurobiological approaches, for posttraumatic stress disorderadaptive threat processing and dysfunction,146–148
cellular, molecular, and genetic mechanisms of fear and,151–154
future directions of research on,155–157
insights into neural circuitry of fear and threat,148, 150–151
Pavlovian conditioning and,146–147, 150, 154–155
Treatment.
See Cognitive-behavioral therapy; Mindfulness; Psychiatry; Psychology; Psychotherapy; Treatment resistance; Treatment response; Treatment selection
Treatment resistanceclinical illustration of transcranial magnetic stimulation for,23–24
deep brain stimulation for obsessive-compulsive disorder,65
neuroimaging and identification of biomarkers for,8
precision psychiatry for major depressive disorder and,225
Treatment response.
See also Prediction
future directions of research on major depressive disorder,138–139
inflammatory markers and antidepressants,101–104
neuroimaging studies of cognitivebehavioral therapy for panic disorder,228–229
prolonged exposure therapy for posttraumatic stress disorder,205–207
rACC and major depressive disorder,134–137
Treatment selection, and treatment planningadvances in research on precision psychiatry,xix–xx
inflammatory biomarkers and,108–110
for information processing impairments,57–62
neuroimaging and neural circuit dysfunction in depressive and anxiety disorders,7–8
for posttraumatic stress disorder,155–156
trial and error as current method of,xvii–xviii
Trial-and-erroras current approach to treatment selection in psychiatry,xvii–xviii
model-based learning and,202
selection of treatments for major depressive disorder and,138
Tricyclic antidepressants, development and introduction of,243
Trimipramine,119Two-step task, and computational psychiatry,184, 185, 186
Typhoid vaccination,100
Unconditional stimulus (UCS), and Pavlovian conditioning,147, 148,
149, 150, 201
Venlafaxine,7,
119Virtual reality, and depth inversion illusion tasks,83,
84Vision science and visual contrast sensitivity, and schizophrenia,87
Vulnerability markers, for schizophrenia,77
Wearable technology, and real-time data collection,223–224
Working memory, and information processing abnormalities in psychiatric disorders,55–
56World Health Organization,229
World Psychiatric Association,230
Zuclopenthixol,119