| Disease-Centred | Field-Centred |
|---|---|
| "Corrects chemical imbalance" | Temporarily modulates field parameters |
| "Treats the disorder" | Creates conditions for process completion or Cl development |
| "Maintenance therapy" | Bridge while building capacity |
| "Relapse prevention" | Dependency creation if Cl not developed |
| "Side effects" | Integral effects we've decided to ignore |
| "Therapeutic dose" | Minimum effective field modulation |
| "It works" | Compared to what outcome? At what cost to Cl? |
Before any prescription: What field parameter is destabilised, and will chemical modulation support or impede the person's capacity to navigate their own consciousness?
All psychiatric medication research is conducted within the disease-centred paradigm, using DSM/ICD categories that lack validity. This creates a structural contamination:
The medication mappings in this document represent clinical observation and mechanistic reasoning, not validated field-based research (which doesn't yet exist). We are attempting to:
This is inherently provisional. The field framework may offer better explanatory power than disease-centred models, but it inherits the epistemological problems of a pharmacopoeia developed within a paradigm it's critiquing.
Some outcomes are more trustworthy than others:
This is why the anti-suicide evidence for lithium may be more meaningful than "efficacy for bipolar disorder" - suicide is a hard outcome not dependent on categorical validity.
Use this framework as a lens for clinical reasoning, not as validated treatment protocol. The goal is to think more clearly about what medications do to consciousness dynamics, while acknowledging that our knowledge base is structurally compromised.
G (Ground/Containment): The stability of the field container
Γ (Gamma/Reflection): Meta-cognitive and self-modelling capacity
Δ² (Delta-squared/Difference): Novelty, disruption, creative-chaotic input
H (Harmonic Coefficient): Overall field coherence
| Dose | Receptor Profile | Field Effect | Clinical Translation |
|---|---|---|---|
| 25-50mg | H1 blockade dominant | G↑ via sedation | Forces containment through arousal suppression; bypasses learned G |
| 50-150mg | H1 + emerging α1/5-HT2A | G↑↑, beginning Γ modulation | Sedation + early salience dampening |
| 150-300mg | + NET inhibition (norquetiapine) | G↑↑, Γ modulation, mild Δ² dampening | Noradrenergic effects alter attention/alertness balance |
| 400-800mg | D2 occupancy >60% | Δ²↓↓↓, G forced, Γ blunted | Major suppression of dopaminergic novelty/salience |
Field Framework Critique:
Field-Aligned Use:
| Parameter | Effect |
|---|---|
| G | ↑↑↑ (profound sedation, H1/muscarinic) |
| Γ | ↓↓ (cognitive blunting common) |
| Δ² | ↓↓↓ (potent D2/5-HT2A blockade) |
Field Translation: The sledgehammer. Maximum Δ² suppression with major G-forcing. Useful in acute overwhelm but high cost to Γ and metabolic health. Creates significant Cl-bypass risk.
| Parameter | Effect |
|---|---|
| G | ↑ (less sedating than quetiapine/olanzapine) |
| Γ | → to ↓ (dose-dependent) |
| Δ² | ↓↓↓ (tight D2 binding, high EPS risk) |
Field Translation: Cleaner Δ² suppression with less G-forcing sedation. The D2 tightness creates akathisia risk - which is itself a G-destabilising iatrogenic effect. Prolactin elevation = endocrine field disruption.
| Parameter | Effect |
|---|---|
| G | → (minimal sedation, can be activating) |
| Γ | → to ↑ (partial D2 agonism may preserve some function) |
| Δ² | ↓ to ↓↓ (partial agonist = ceiling effect) |
Field Translation: The "modulator" rather than suppressor. Partial D2 agonism creates a ceiling - it dampens excessive dopamine signalling without complete blockade. Can be activating (akathisia) which destabilises G. May preserve Γ better than full antagonists.
Clinical Puzzle: Why does aripiprazole sometimes worsen agitation? Field answer: in a system already G-destabilised, the activating properties further disrupt containment even while modulating Δ².
| Parameter | Effect |
|---|---|
| G | ↑↑ (sedation, but complex) |
| Γ | Variable (some report cognitive clarity unavailable on other antipsychotics) |
| Δ² | ↓↓ (loose D2 binding, fast dissociation) |
Field Translation: The supposed anomaly. Clozapine is positioned as "effective for treatment-resistant schizophrenia" - but this framing conceals multiple category errors:
Epistemological Caution: We cannot know whether clozapine is genuinely more effective because the pathway to clozapine is so corrupted. The "clozapine anomaly" may be artefactual - a product of system failures misattributed as individual biology. The loose D2 binding hypothesis remains plausible but unverifiable within the current paradigm.
| Parameter | Effect |
|---|---|
| G | ↑ (circadian stabilisation, reduced reactivity) |
| Γ | → to ↑ (neuroprotective, may support reflection) |
| Δ² | Modulated rather than suppressed |
Field Translation: Lithium doesn't suppress the system; it stabilises the container. Effects on GSK-3β, circadian rhythms, and neuroplasticity suggest it strengthens G without crushing Δ². This may explain why it's the only mood stabiliser with clear anti-suicide evidence - it supports field coherence rather than just dampening extremes.
Clinical Concerns:
Epistemological Caution: The research base showing lithium's efficacy is built on the category "bipolar disorder" - itself a dimensionally impoverished construct. If the category is invalid, what does "effective for bipolar disorder" actually measure? The anti-suicide evidence may be more robust (suicide is a hard outcome, not a category), but efficacy claims for "mood stabilisation" inherit all the validity problems of the diagnostic framework.
Clinical Implication: Lithium may be more field-aligned than other mood stabilisers, but this cannot be confidently asserted given the fundamental category errors contaminating the evidence base. The requirement for ongoing monitoring and the long-term toxicity create a dependency relationship that may undermine Cl development regardless of the pharmacological mechanism.
| Parameter | Effect |
|---|---|
| G | ↑ (GABAergic, anticonvulsant stabilisation) |
| Γ | ↓ (cognitive dulling common) |
| Δ² | ↓↓ (broad dampening) |
Field Translation: GABAergic G-enhancement plus general neural dampening. More suppressive than lithium. The cognitive effects suggest Γ cost. Useful in acute mania but may impede long-term Cl development.
| Parameter | Effect |
|---|---|
| G | ↑ (glutamate modulation, mood floor) |
| Γ | → (generally cognition-sparing) |
| Δ² | Modulated (prevents depressive collapse more than manic surge) |
Field Translation: Creates a "floor" preventing H→0 collapse without suppressing H>1 capacity. Glutamate modulation may support Γ maintenance. Relatively Cl-preserving - people often report feeling "like themselves" on lamotrigine.
| Parameter | Effect |
|---|---|
| G | Variable (can initially destabilise via activation) |
| Γ | Variable (emotional blunting may impair reflection) |
| Δ² | ↓ (reduced emotional reactivity, for better and worse) |
Field Translation: SSRIs reduce Δ² sensitivity - the system becomes less reactive to emotional provocation. This can relieve anxiety/depression but also creates "emotional blunting" - reduced access to the signal that Δ² carries.
The SSRI Paradox: They work for both depression (H→0) and anxiety (H oscillation from Δ² overwhelm). Field explanation: both involve Δ² dysregulation - depression may be collapsed Δ² (nothing feels significant), anxiety may be excessive Δ² (everything feels threatening). SSRIs modulate Δ² sensitivity regardless of direction.
Cl Implications: If Δ² carries important signal (trauma to be processed, life circumstances to be addressed), suppressing it delays reckoning. SSRIs may be most appropriate when Δ² is genuinely excessive relative to circumstances, least appropriate when Δ² accurately reflects situation requiring change.
| Parameter | Effect |
|---|---|
| G | ↑ (noradrenergic may improve arousal regulation) |
| Γ | → to ↑ (noradrenaline supports attention/salience) |
| Δ² | ↓ (serotonergic dampening) |
Field Translation: Adding noradrenaline to serotonin creates more complex modulation. May support Γ (attention, salience processing) while still dampening Δ². The noradrenergic component may make these better for "atypical" depression with low arousal.
| Parameter | Effect |
|---|---|
| G | ↑↑↑ (profound H1 sedation, weight gain) |
| Γ | → |
| Δ² | ↓ (5-HT2/5-HT3 blockade) |
Field Translation: Often used as a sedating antidepressant, but really it's an H1 antihistamine that also modulates serotonin. The G-enhancement is primarily via sedation - similar critique to low-dose quetiapine. The appetite stimulation/weight gain reflects metabolic field disruption.
| Parameter | Effect |
|---|---|
| G | → to ↓ (can be activating, disrupt sleep) |
| Γ | ↑ (dopamine/noradrenaline support attention, motivation) |
| Δ² | → to ↑ (doesn't dampen, may increase activation) |
Field Translation: The anti-SSRI. Instead of dampening Δ², it supports Γ through dopaminergic/noradrenergic enhancement. Useful for H→0 states with collapsed motivation. Can destabilise G through activation. Contraindicated in H>1 or anxiety-predominant presentations.
| Parameter | Effect |
|---|---|
| G | ↑↑↑ (immediate, powerful, GABAergic) |
| Γ | ↓ (amnesia, cognitive impairment) |
| Δ² | ↓↓ (blunts all signal) |
Field Translation: Emergency G-enhancement. The most rapid field stabilisation available, but at massive Cl cost. Creates dependence, impairs memory consolidation (Γ damage), and prevents learning to manage Δ². The ultimate Cl-bypass.
Field-Aligned Use: Genuine acute crisis, time-limited, with explicit framing that this is emergency stabilisation while other G-resources are mobilised. Never as maintenance.
| Parameter | Effect |
|---|---|
| G | ↑↑ (GABAergic-adjacent, calcium channel) |
| Γ | ↓ (cognitive effects common) |
| Δ² | ↓↓ (broad anxiolysis) |
Field Translation: "Gentle benzodiazepine." Similar G-forcing and Δ² suppression with somewhat less acute Γ impairment but still significant dependence potential. Often prescribed long-term as "safer than benzos" but creates similar Cl-bypass dynamics.
| Parameter | Effect |
|---|---|
| G | → to ↑ (paradoxical calming in ADHD) |
| Γ | ↑↑ (enhanced attention, executive function) |
| Δ² | Modulated (filtered rather than suppressed) |
Field Translation: For the neurodivergent brain, stimulants enhance Γ (the capacity to reflect, direct attention, maintain executive function). The paradoxical calming represents improved G through enhanced Γ - the person can now regulate because they can reflect.
Crucially: Stimulants don't suppress Δ²; they improve the system's capacity to process Δ². This is capacity-revealing rather than capacity-substituting. The medication doesn't create a capacity that isn't there; it clears the interference preventing access to capacity that was always present.
The Neurotype-Ecosystem Mismatch: The need for stimulants reflects a mismatch between neurodivergent cognitive architecture and an ecosystem designed for neurotypical processing. The medication compensates for an ill-fitting world, not a broken brain. This is a "sad situation" - pharmacological accommodation to environmental failure.
The Revelation That Persists: Some individuals find that stimulant use reveals capacities that remain accessible even after discontinuation. The medication showed them what they were capable of; the knowledge persists beyond the pharmacological window. This is fundamentally different from suppressive medications where discontinuation reveals unchanged underlying dynamics.
Why ADHD Meds Are Different: They don't dampen the system; they improve signal-to-noise ratio, supporting the person's own regulatory capacity. This is the closest to field-aligned pharmacology in the current psychiatric toolkit.
| Parameter | Effect |
|---|---|
| G | ↓↓ then ↑ (acute dissolution, post-integration) |
| Γ | ↑↑↑ (massively enhanced reflection during experience) |
| Δ² | ↑↑↑ (amplified signal, reduced filtering) |
Field Translation: Psychedelics invert the standard psychiatric approach. Instead of suppressing Δ² and forcing G, they amplify Δ², dissolve G temporarily, and massively enhance Γ. This creates conditions for recognition and integration - but requires adequate set/setting (external G) to prevent fragmentation.
Why Outcomes Vary: Same pharmacology produces breakthrough or breakdown depending on field conditions. The drug doesn't determine outcome; containment does.
| Parameter | Effect |
|---|---|
| G | ↓ then → (dissociation, then return) |
| Γ | Variable (dissociation may impair or enable) |
| Δ² | Novel processing (NMDA blockade creates altered state) |
Field Translation: Ketamine creates temporary field reorganisation through dissociation. The rapid antidepressant effect may reflect brief H<0 dissolution allowing system reset. But without integration support, effects are transient - the field returns to baseline because no Cl was developed.
When patient reports medication "not working":
Withdrawal: Time-limited destabilisation from neuroadaptation reversal Relapse: Return of underlying field dynamics that were suppressed, not resolved
Field framework reveals: Much "relapse" is actually the system meeting unchanged Cn with medication-suppressed Cl. The solution isn't re-medication; it's Cl development with adequate support.
The field framework doesn't reject medication - it contextualises it within a larger understanding of consciousness dynamics. Medications become tools for temporary field modulation in service of capacity development, not indefinite suppressants that substitute for learning to navigate one's own consciousness.
The paradigm shift: From "Which medication treats this diagnosis?" to "What is this consciousness needing, and does pharmacological intervention support or impede that need?"
Work in Progress - Developed in collaboration between clinical experience and field-based consciousness framework