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psx:substance/3-cl-pcp/search/cb62d497-2f77-47ba-b8ea-383ea510f2b2

search2026-05-07recorddatabase_lookup

derived from · upstream

none recorded

feeds · downstream

Closure of psx:substance/3-cl-pcp/search/cb62d497-2f77-47ba-b8ea-383ea510f2b2: 50 upstream, 79 downstream.

psx:substance/3-cl-pcp/search/cb62d497-2f77-47ba-b8ea-383ea510f2b2
  ├─ used  search/07e5556e-ce80-441f-948b-ad75307c2fc9  Searched PubMed for "3-chloro-PCP phencyclidine analog pharmacology"
  ├─ used  search/eb472fed-8532-447b-abc1-dc903d1d5046  Searched OpenAlex for "3-chlorophencyclidine arylcyclohexylamine NMDA receptor"
  ├─ used  search/840ecffe-c358-4db5-afb2-3d95c5ca2608  Searched PubChem for "1-(1-(3-chlorophenyl)cyclohexyl)piperidine"
  ├─ used  search/46243ed8-8414-42b4-8f3b-393e9ce658ac  Searched Crossref for "10.1124/jpet.123.001942"
  ├─ used  search/3a967699-1296-4faf-905e-726e91978351  Searched PubMed for "3-Cl-PCP arylcyclohexylamine dissociative binding affinity NMDA"
  ├─ used  search/c0ab2a7a-bfe4-4339-adce-97cd10065d58  Searched PubMed for "phencyclidine ring-substituted analogs structure activity relationship CNS"
  ├─ used  search/1e042b27-e6cb-42cb-b8d2-ff3b9e50aece  Searched PubMed for "phencyclidine NMDA receptor antagonist sigma receptor binding pharmacology review"
  ├─ used  search/26477843-04db-4a8a-a1bc-ecec5f8b974a  Searched PubMed for "3-MeO-PCP methoxyphencyclidine case report intoxication forensic toxicology"
  ├─ used  search/a6bfdbbc-effd-443f-9c3a-4088909cc9e7  Searched ClinicalTrials.gov for "3-chloro phencyclidine dissociative arylcyclohexylamine"
  ├─ used  search/07402213-c0a3-4e4e-aa73-45a9143cc706  Searched PubMed for "PMID 10063482 - Jentsch & Roth 1999 PCP neuropsychopharmacology"
  ├─ used  search/701083aa-f7e2-45d4-b13c-811d9197dce5  Searched PubMed for "PMID 12232776 - Kapur & Seeman 2002 PCP at D2 and 5-HT2 receptors"
  ├─ used  search/eb430ea9-56f7-4fca-a041-8f0c87da465f  Searched WebSearch for "3-Cl-PCP DEA analog act scheduling 2024"
  ├─ used  search/cf5db248-057c-48dd-b6e2-50f03ca38ccd  Searched WebSearch for "3-Cl-PCP pharmacology NMDA binding affinity dissociative"
  ├─ used  search/d3b67570-c1a7-4139-b44c-8baad8955476  Searched WebSearch for "3-Cl-PCP first synthesized 2020 market research chemical history"
  ├─ used  search/c99f264c-c65d-4024-9ccb-4900925c0f72  Searched UNODC
  ├─ used  search/6b727bbf-020c-4d58-bd63-dbedcc601bd8  Searched Federal Register for "3-Cl-PCP scheduling DEA"
  ├─ used  search/c8dab7cb-fe94-4c8e-b4ea-12c51ed6a8c1  Searched PubMed for "PMID 27314670 - Wallach 2016 diphenidine pharmacology 46 receptors"
  ├─ used  search/c3e6a3de-4383-46da-9147-53f697158c7a  Searched PubMed/PMC for "PMID 20440387 - Bey & Patel 2007 PCP intoxication review"
  ├─ used  search/64a7ddd7-77b4-46b1-b37a-17f2b032116f  Searched OpenAlex for "Shaw Fantegrossi arylcyclohexylamine PCP analog rodent 2024"
  ├─ used  search/d56bf797-8ea7-4a6f-b2f2-0b7d97aec453  Searched WebSearch for "phencyclidine PCP human pharmacokinetics plasma half-life alkaline urine"
  ├─ used  search/8293b5fc-c466-4152-8d2a-1953ca0d7339  Searched WebSearch for "3-Cl-PCP legal status UK Psychoactive Substances Act scheduling"
    ├─ used  src/pmid:20440387  Phencyclidine intoxication and adverse effects: a clinical and pharmacological review of an illicit drug
    ├─ used  src/url:162cbf0f33a0d96c  3-Cl-PCP Toxicology Report (CFSRE / Slovenian Police)
    ├─ used  src/url:a462e06b970cf029  3-Cl-PCP: Analyzing This Rare Dissociative Psychedelic
    ├─ used  src/doi:10.1124/jpet.123.001942  Phencyclidine-Like Abuse Liability and Psychosis-Like Neurocognitive Effects of Novel Arylcyclohexylamine Drugs of Abuse in Rodents
    ├─ used  src/doi:10.1016/s0893-133x(98)00060-8  The neuropsychopharmacology of phencyclidine: from NMDA receptor hypofunction to the dopamine hypothesis of schizophrenia.
    ├─ used  src/pmid:4040569  Continuous intravenous infusion of phencyclidine in unrestrained rats results in the rapid induction of tolerance and physical dependence
    ├─ used  src/url:336adabe029eaefe  3-Cl-PCP - PsychonautWiki
    ├─ used  src/pmid:2899317  Receptor mediation of the discriminative stimulus properties of phencyclidine and sigma-opioid agonists
    ├─ used  src/doi:10.1016/j.forsciint.2017.02.034  A non-fatal intoxication and seven deaths involving the dissociative drug 3-MeO-PCP
    ├─ used  src/url:f246d23d56d6c12f  Schedules of Controlled Substances: Placement of 3-Methoxyphencyclidine in Schedule I (Final Rule)
    ├─ used  src/pmid:2573019  Different modulation of the binding to two phencyclidine (PCP) receptor subtypes: effects of N-methyl-D-aspartate agonists and antagonists
    ├─ used  src/pmid:8632719  Modulation of NMDA and dopaminergic neurotransmissions by sigma ligands: possible implications for the treatment of psychiatric disorders
    ├─ used  src/doi:10.1124/jpet.124.002109  The Evolving Challenge of New Psychoactive Substances: Understanding the Risks and Behavioral Effects of Novel Analogs of Dissociative Anesthetics
    ├─ used  src/pmid:6852275  Phencyclidine disposition in humans after small doses of radiolabeled drug.
    ├─ used  src/pmid:17892269  Bioactivation of phencyclidine in rat and human liver microsomes and recombinant P450 2B enzymes: evidence for the formation of a novel quinone methide intermediate
    ├─ used  src/doi:10.1080/20961790.2017.1285219  Metabolism and metabolomics of ketamine: a toxicological approach
    ├─ used  src/pmid:7128004  Urine pH and phencyclidine excretion
    ├─ used  src/doi:10.1007/s00204-025-04283-x  ADME profile of phencyclidine (PCP) analogues: emerging dissociative hallucinogens 3-MeO-PCP (CAS: 72242-03-6) and 4-MeO-PCP — a multi-in silico approach
    ├─ used  src/pmid:12232776  NMDA receptor antagonists ketamine and PCP have direct effects on the dopamine D2 and serotonin 5-HT2 receptors - implications for models of schizophrenia
    ├─ used  src/pmid:2172677  Sigma binding sites in the brain; an emerging concept for multiple sites and their relevance for psychiatric disorders
    ├─ used  src/doi:10.1016/j.jflm.2014.04.007  Novel psychoactive substance intoxication resulting in attempted murder
    ├─ used  src/doi:10.1007/s00204-025-04242-6  Qualitative and quantitative in silico toxicity profiling of 'angel dust': phencyclidine (PCP) analogues as new psychoactive substances (3-HO-PCP, 3-MeO-PCP, 4-MeO-PCP, 3-HO-PCE, 3-MeO-PCE, 4-MeO-PCE)
    ├─ used  src/doi:10.1007/s13181-026-01122-y  Rhabdomyolysis and Acute Kidney Injury after Use of 3-Methyl-PCP: A Case Report
    ├─ used  src/pmid:412949  The effects of acute and chronic phencyclidine on schedule-controlled behavior in the squirrel monkey
    ├─ used  src/pmid:6317323  Effects of SKF-10047 in the phencyclidine-dependent rat: evidence for common receptor mechanisms
    ├─ used  src/doi:10.1080/00952990.2022.2132506  Overdoses and deaths related to the use of ketamine and its analogues: a systematic review
    ├─ used  src/doi:10.1097/FBP.0000000000000241
    ├─ used  src/url:64055d374cc5cfab  Phencyclidine-type substances - UNODC Laboratory and Scientific Service
    └─ generated_by  pub/d8f31bb7-e0a3-49fd-8a87-b6f4c93d9211  Publication — backfill
├─ used  gen/c91e302a-d518-4612-8a47-458b207dddbe  Generation — pipeline-v5
  ├─ derived_from  version/1  Revision 1
    ├─ derived_from  issue/notice@d64f1d67defc  Issued notice
    ├─ derived_from  issue/info_card@75e7119912e7  Issued info_card
    ├─ derived_from  issue/emergency@ba304cf8bf8d  Issued emergency
    ├─ derived_from  issue/info_card@b99f14b4ec3c  Issued info_card
      ├─ used  claim/dd6ef2fa-21b9-47b0-aff9-d8cd45d97149  Claim in summary — supported
      ├─ used  claim/0161e279-4fbd-49af-904c-aa7baf99993e  Claim in pharmacology — inconclusive  working
      ├─ used  claim/bdc34a11-339a-4588-b47c-79c7b37ecd41  Claim in pharmacology — inconclusive  working
      ├─ used  claim/57acec43-111e-48aa-92f9-428401e85fba  Claim in pharmacology — inconclusive  working
      ├─ used  claim/d844dc1e-8c89-4fb4-bee5-a0f72efdb008  Claim in safety — inconclusive  working
      ├─ used  claim/6c04a060-20f7-4e32-93db-f91f06284f15  Claim in safety — inconclusive  working
      ├─ used  claim/e0344009-add8-4c2e-9628-873a6b2eb1ab  Claim in pharmacokinetic-detail — supported
      ├─ used  claim/9071f853-e4d8-4c01-86eb-c421b3ba7071  Claim in summary — supported
      ├─ used  claim/a574682c-fa61-48ed-83cc-992d1bc0a5f9  Claim in summary — supported
      ├─ used  claim/97062b4e-0403-4201-aa5c-03a021a35a13  Claim in summary — inconclusive  working
      ├─ used  claim/260eddf2-895b-4efa-af1b-a31a4173a8c0  Claim in summary — supported
      ├─ used  claim/eeabf81b-bfa6-4d1f-b443-0d1d7a29ec1d  Claim in pharmacology — supported
      ├─ used  claim/fa4ea6d5-5eab-4187-817a-856436cb9318  Claim in pharmacology — inconclusive  working
      ├─ used  claim/45acba09-95b3-4779-af18-00338f5833c4  Claim in safety — inconclusive  working
      ├─ used  claim/6bb0e114-ecd8-4a19-b8c3-4092ec007625  Claim in safety — supported
      ├─ used  claim/a2b17584-7770-471a-a8f4-cd61d72a93e1  Claim in receptor-pharmacology — supported
      ├─ used  claim/9dd2d29e-d400-46db-834f-26450a1d5adc  Claim in clinical-evidence — supported
      ├─ used  claim/722edf15-70f1-4008-a15a-8e2d7a6721f2  Claim in comparative-pharmacology — supported
      ├─ used  claim/d4bc3a5b-9a1f-4790-8b49-2bfe5526f6ed  Claim in comparative-pharmacology — inconclusive  working
      ├─ used  claim/4e22ce09-8d7c-4bf4-bf7b-23e3db904a09  Claim in comparative-pharmacology — inconclusive  working
      ├─ used  claim/443d99de-6d3e-4051-bb6c-8b2385eba229  Claim in neuroscience — inconclusive  working
      ├─ used  claim/681f72f1-c931-4417-855f-d9145e762fd0  Claim in neuroscience — supported
      ├─ used  claim/62ee1e7f-fb9c-4023-99bf-266b328475fd  Claim in effects-overview — supported
      ├─ used  claim/a12d648e-3d72-4c8f-abef-c468c38a57fb  Claim in summary — supported
      ├─ used  claim/711bc904-cb2f-407b-83fc-b60b384656a0  Claim in pharmacology — supported
      ├─ used  claim/619282d2-c2d5-4e66-a489-2d70e17bbbd2  Claim in safety — supported
      ├─ used  claim/1f9a4806-0828-4cdc-be03-429ca5ce518d  Claim in safety — supported
      ├─ used  claim/d298210a-0387-424b-8b0c-414587d6b14a  Claim in neuroscience — inconclusive  working
      ├─ used  claim/dd2ff562-cca5-45a6-b9c5-bfe151e656fb  Claim in neuroscience — supported
      ├─ used  claim/1ba34a64-91a7-4366-b9a1-f9da3cd621d0  Claim in neuroscience — supported
      ├─ used  claim/47ccc125-b133-4486-a25e-ac4fe1f7c1a4  Claim in summary — supported
      ├─ used  claim/89107b53-d8ad-477b-8c8c-854a090ae51d  Claim in safety — inconclusive  working
      ├─ used  claim/faa75eaf-cefc-4450-bb57-2254d8cbe670  Claim in safety — supported
      ├─ used  claim/3221b1a9-aeb4-4bef-b441-80b593f4fa45  Claim in pharmacology — inconclusive  working
      ├─ used  claim/86265466-1e2c-4334-8033-05a3398875da  Claim in safety — supported
      ├─ used  claim/6f06c6d8-e3ef-4e0b-b988-1deca6976f74  Claim in history — supported
      ├─ used  claim/fa5a291d-ef9a-4322-8868-6b90a26eba08  Claim in comparative-pharmacology — partially_supported
      ├─ used  claim/ab861409-2742-4ec2-ae74-9d7c99c221c4  Claim in history — partially_supported
      ├─ used  claim/78ab3a5b-8711-47bc-b61d-40380523165f  Claim in pharmacology — inconclusive  working
      ├─ used  claim/cf99c4ee-07fa-4dcf-a259-4078a0b18f3a  Claim in pharmacology — supported
      ├─ used  claim/1fe0ca63-a934-44c4-8104-4ab6ee663643  Claim in receptor-pharmacology — supported
      ├─ used  claim/c13d23f1-1799-4c81-938c-920f93ebdb81  Claim in pharmacology — supported
      ├─ used  claim/bc260152-1642-4195-91ff-944881bd9416  Claim in pharmacology — supported
      ├─ used  claim/6935ec85-b435-4952-a7ba-68dc9d8fea24  Claim in pharmacology — supported
      ├─ used  claim/f7988a55-4da6-4884-a78f-b4b33e13730a  Claim in comparative-pharmacology — supported
      ├─ used  claim/cf3e576c-24da-4f9a-a606-5d5b2bb59362  Claim in pharmacology — partially_supported
      ├─ used  claim/03ddf372-d522-4f6f-a410-fb8316604b7a  Claim in safety — supported
      ├─ used  claim/7fe16e18-b757-4f5b-91a7-627a0dfc954e  Claim in safety — partially_supported
      ├─ used  claim/7d78bce2-7c5a-4b4f-8a0a-0a7c8ed051f4  Claim in pharmacokinetic-detail — supported
      ├─ used  claim/1440d26a-c0d5-4826-9650-f060cceb6407  Claim in pharmacokinetic-detail — partially_supported
      ├─ used  claim/bcc8ee2c-d610-4a67-8da8-31dfb9231dbe  Claim in pharmacology — inconclusive  working
      ├─ used  claim/6ac9cf22-4f63-4364-830a-3630189c470b  Claim in safety — partially_supported
      ├─ used  claim/5a32cdf5-7d15-4f37-8c5d-16a7a4f69734  Claim in pharmacokinetic-detail — partially_supported
      ├─ used  claim/4d2b3d19-fe97-4300-90b3-cf4adabe8d95  Claim in pharmacology — partially_supported
      ├─ used  claim/187e2ac8-cc5d-4f14-884f-de869bd32b90  Claim in pharmacokinetic-detail — supported
      ├─ used  claim/6fd20742-c6cc-400f-9a6f-3a0bec26285d  Claim in pharmacology — supported
      ├─ used  claim/bb8c0e9d-5322-455d-a607-85e26640f485  Claim in pharmacokinetic-detail — supported
      ├─ used  claim/7563b4ad-075e-45d6-bf74-c521819f2138  Claim in receptor-pharmacology — supported
      ├─ used  claim/1740331e-0ec7-48eb-ab75-a6a17a8b7970  Claim in neuroscience — inconclusive  working
      ├─ used  claim/43f9ee4b-8551-4962-9117-6f110e397c81  Claim in receptor-pharmacology — supported
      ├─ used  claim/f00de3c2-0be0-4d09-8780-9e12d875f441  Claim in safety — supported
      ├─ used  claim/59376eff-8e54-40d5-8ecd-8fd79e956db1  Claim in safety — supported
      ├─ used  claim/6e5a3581-d238-4c9e-b4cc-d94b6d571ae7  Claim in comparative-pharmacology — supported
      ├─ used  claim/5b87f2ca-9907-450f-8cf7-f2d395f26434  Claim in safety — inconclusive  working
      ├─ used  claim/7a68937c-dd99-433d-8521-31bcaa0ff83d  Claim in safety — supported
      ├─ used  claim/85700dc6-3c2f-4302-b679-c4da3d710abb  Claim in safety — partially_supported
      ├─ used  claim/9d12fc8a-ba4e-4939-90bb-5cc97c5cd5b3  Claim in safety — supported
      ├─ used  claim/209d361d-c51b-491c-84f6-6a53a350eb19  Claim in safety — supported
      ├─ used  claim/6b16b494-6189-4fb3-83b8-2224b6ae4347  Claim in safety — supported
      ├─ used  claim/be3d4d51-71a7-42b6-aa5e-a5c4f7ec7c21  Claim in safety — supported
      ├─ used  claim/1032a9d7-fe6c-473d-bb61-b4700c7a874d  Claim in safety — supported
      ├─ used  claim/bc7ce2da-d384-4af8-a1af-7388700a0fa9  Claim in safety — supported
      └─ used  claim/4993d058-3e23-4976-9970-3c810821415a  Claim in safety — inconclusive  working
… closure truncated at 200 nodes

indented by distance from this node, not by parentage

1Provenance card

the boundary, as counts

Sources

2811 with DOI

1 strong · 19 moderate · 8 weak

Compilations

12026-05-07T19:15:55.788Z

pipeline-v5 · prompt hash not recorded — run predates 2026-09

Decisions

34last ruled 2026-06-04

0 awaiting a ruling

Issued documents

42026-10-19T20:29:32.251Z

notice · info card · emergency

Searches

226 with no results

queries and counts on the build

Claims checked

7354 supported

54 supported · 19 not

Correspondence

0received

consent field ships in Phase 4

Edges

243

derivations recorded for this entity

Complete over 28 sources, 1 compilation, and 34 decisions.Not here: the private journal (never).Working material — drafts, discards, unsupported claims — is listed below and readable on the working page.Cite: psychedex.org/substances/3-cl-pcp/archive

2Build

one panel per compilation run

generation run 2026-05-07

103 min completedmodel pipeline-v5plan not recordedrun/a80f8b0d…

Selection

results seen81
selected by the model15
consumed as sources28

Verification

claims checked73
supported45
partially supported9
not supported0
inconclusive19
  • record
  • seen / partial
  • working

The model's own caveats

  • sparse_evidence
  • structural_inference
  • safety_data_unverified

Reproduce

inputs
28 source keys (listed under Sources)
plan
not recorded — template version, prompt hash and git SHA are written from 2026-09 onward
model
pipeline-v5
streams
none — agent transcripts are persisted from 2026-09 onward
22 searches — query, source, results, what was kept and why
22 searches for this run
#sourcequeryseenkeptrationale
1PubMed3-chloro-PCP phencyclidine analog pharmacology151Only paper directly studying 3-Cl-PCP in vivo
2PubMedphencyclidine NMDA receptor antagonist sigma receptor binding pharmacology review33—
3PubMed3-MeO-PCP methoxyphencyclidine case report intoxication forensic toxicology55—
4PubMed · absence3-Cl-PCP arylcyclohexylamine dissociative binding affinity NMDA0——
5Crossref10.1124/jpet.123.00194211—
6PubChem1-(1-(3-chlorophenyl)cyclohexyl)piperidine11Confirmed chemical identity
7ClinicalTrials.gov · absence3-chloro phencyclidine dissociative arylcyclohexylamine0——
8PubMed · absencephencyclidine ring-substituted analogs structure activity relationship CNS0——
9PubChem · absence3-Cl-PCP0——
10OpenAlex · absence3-chlorophencyclidine arylcyclohexylamine NMDA receptor0——
11PubMedPMID 10063482 - Jentsch & Roth 1999 PCP neuropsychopharmacology11—
12Federal Register · absence3-Cl-PCP scheduling DEA0——
13PubMedPMID 12232776 - Kapur & Seeman 2002 PCP at D2 and 5-HT2 receptors11—
14UNODC—1——
15WebSearch3-Cl-PCP pharmacology NMDA binding affinity dissociative101—
16WebSearch3-Cl-PCP first synthesized 2020 market research chemical history101—
17WebSearch3-Cl-PCP DEA analog act scheduling 202410——
18OpenAlexShaw Fantegrossi arylcyclohexylamine PCP analog rodent 20241——
19WebSearch3-Cl-PCP legal status UK Psychoactive Substances Act scheduling10——
20PubMed/PMCPMID 20440387 - Bey & Patel 2007 PCP intoxication review1——
21PubMedPMID 27314670 - Wallach 2016 diphenidine pharmacology 46 receptors1——
22WebSearchphencyclidine PCP human pharmacokinetics plasma half-life alkaline urine10——
73 claims by section — every cited sentence, checked against its source
safety24 · 18 ok
  • Claim in safety — inconclusiveinconclusiveworking →

  • For comparison, in silico toxicity modeling for related PCP analogs (3-HO-PCP, 3-MeO-PCP, 4-MeO-PCP) estimates oral LD₅₀ in rats at approximately 200–630 mg/kg and intravenous LD₅₀ in mice at approximately 25–59 mg/kgsupported

    In silico toxicity profiling of PCP analogues: rat oral LD50 200-630 mg/kg range, IV LD50 in mice ~25-59 mg/kg. s00204-025-04242-6

  • Claim in safety — inconclusiveinconclusiveworking →

  • PCP-class NMDA antagonists produce sympathomimetic cardiovascular effects — tachycardia and hypertension — via catecholamine reuptake inhibition. In silico modeling for PCP analogs predicts hERG channel inhibition (IC₅₀ ~4.9–12.3 µM), suggesting risk of QT interval prolongation and cardiac arrhythmia.partially supported

    Cardiotoxicity signals (hERG inhibition). Lung, liver, blood as organ targets. s00204-025-04242-6

  • Rhabdomyolysis and acute kidney injury have been documented for 3-methyl-PCP, a closely related ring-substituted PCP analogsupported

    Rhabdomyolysis and acute kidney injury reported. s13181-026-01122-y

  • Claim in safety — inconclusiveinconclusiveworking →

  • PCP undergoes hepatic bioactivation to reactive intermediates (quinone methide) via CYP2B6, a pathway that could generate hepatotoxic metabolitessupported

    PCP undergoes bioactivation via CYP2B6 and CYP2C19 in human liver microsomes. Two pathways identified: dihydropyridinium formation and quinone methide intermediate from para-hydroxylation. GSH conjugates detected. pmid:17892269

  • Claim in safety — inconclusiveinconclusiveworking →

  • PCP is among the most potent pharmacological psychotomimetics, producing schizophrenia-like positive symptoms (hallucinations, delusions), negative symptoms (social withdrawal, flattened affect), and cognitive deficits (working memory impairment, disorganized thought). 3-Cl-PCP produced dose-dependent psychosis-like neurocognitive deficits in a rat model specifically designed for validity against the human psychosis construct.supported

    Administration of noncompetitive NMDA/glutamate receptor antagonists, such as phencyclidine (PCP) and ketamine, to humans induces a broad range of schizophrenic-like symptomatology. s0893-133x(98)00060-8

  • PCP is among the most potent pharmacological psychotomimetics, producing schizophrenia-like positive symptoms (hallucinations, delusions), negative symptoms (social withdrawal, flattened affect), and cognitive deficits (working memory impairment, disorganized thought). 3-Cl-PCP produced dose-dependent psychosis-like neurocognitive deficits in a rat model specifically designed for validity against the human psychosis construct.supported

    PCP and 3-Cl-PCP both elicited dose-dependent psychosis-like neurocognitive deficits not observed with cocaine or morphine. jpet.123.001942

  • Prolonged psychiatric sequelae are documented for the closely related compound 3-MeO-PCP, with hallucinations persisting up to six weeks after a single exposuresupported

    Hallucinations lasted 6 weeks. j.jflm.2014.04.007

  • A case report documents attempted murder in a patient under the combined influence of 3-MeO-PCP and MDPVsupported

    3-MeO-PCP + MDPV + butane inhalation induced vivid hallucinations and bizarre delusions leading to violent behavior (attempted murder). j.jflm.2014.04.007

  • Claim in safety — inconclusiveinconclusiveworking →

  • Claim in safety — inconclusiveinconclusiveworking →

  • In squirrel monkeys, approximately 2-fold tolerance developed after 82–126 days of chronic dosing.supported

    Chronic PCP administration (82-126 days) in squirrel monkeys demonstrated approximately 2-fold tolerance shift in dose-response curves. pmid:412949

  • Cross-tolerance is documented between PCP and sigma agonists (SKF-10047) and is expected across the dissociative class, including ketamine, dextromethorphan, methoxetamine, and other NMDA antagonists.supported

    Cross-tolerance demonstrated between PCP and sigma agonist SKF-10047. pmid:6317323

  • Physical dependence has been demonstrated for PCP in rats after 7 days of continuous intravenous infusion; the withdrawal syndrome included piloerection, audiogenic seizures, weight loss, and reduced locomotor activity, emerging approximately 4 hours after cessation and resolving mostly within 24 hours.supported

    PCP infusion in rats induced tolerance within 3.5 days and physical dependence within 7 days. Abstinence syndrome included piloerection, audiogenic seizures, weight loss, reduced locomotor activity. First withdrawal signs 4hr post-cessation. pmid:4040569

  • Reinforcing properties: PCP reliably maintains self-administration in animal models, confirming genuine addictive potentialsupported

    PCP analogs can function as reinforcers for self-administration. pmid:2899317

  • Polydrug use was identified in 53% of ketamine-related fatalities in a systematic review of dissociative overdose deaths, establishing this as the highest-risk interaction category for the class.supported

    Polydrug use in 53% of cases. 00952990.2022.2132506

  • CYP2B6 interactions: 3-Cl-PCP is expected to be metabolized primarily by CYP2B6, with secondary metabolism via CYP3A4 and CYP2C19partially supported

    PCP undergoes bioactivation via CYP2B6 and CYP2C19 in human liver microsomes. pmid:17892269

  • CYP2B6 interactions: 3-Cl-PCP is expected to be metabolized primarily by CYP2B6, with secondary metabolism via CYP3A4 and CYP2C19partially supported

    Ketamine metabolized by CYP3A4 and CYP2B6 (N-demethylation to norketamine). 20961790.2017.1285219

  • Pre-existing psychotic disorders: NMDA receptor antagonists are established psychotomimetics that exacerbate schizophrenia spectrum symptoms. 3-Cl-PCP is contraindicated in individuals with schizophrenia, schizoaffective disorder, or a personal or family history of psychosis.supported

    Administration of noncompetitive NMDA/glutamate receptor antagonists, such as phencyclidine (PCP) and ketamine, to humans induces a broad range of schizophrenic-like symptomatology. s0893-133x(98)00060-8

  • Cardiovascular disease: Sympathomimetic effects (tachycardia, hypertension) and predicted hERG channel inhibition represent serious risk for individuals with pre-existing cardiac conditions, conduction abnormalities, or hypertension.supported

    Cardiotoxicity signals (hERG inhibition). s00204-025-04242-6

  • Polydrug involvement accounts for the majority of dissociative-related deaths.supported

    Polydrug use in 53% of cases. Mostly male. Ages 2-65 years. Ketamine preponderant in fatalities. 00952990.2022.2132506

pharmacology16 · 9 ok
  • 3-Cl-PCP is presumed to exert its primary effects through non-competitive, use-dependent antagonism of the NMDA receptor (N-methyl-D-aspartate receptor), binding within the open ion channel at the phencyclidine binding sitesupported

    Administration of noncompetitive NMDA/glutamate receptor antagonists, such as phencyclidine (PCP) and ketamine, to humans induces a broad range of schizophrenic-like symptomatology. s0893-133x(98)00060-8

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Secondary pharmacological activity is expected at sigma-1 and sigma-2 receptors, where the sigma/PCP site partially overlaps with the NMDA-associated binding site; sigma ligands at these sites modulate both glutamatergic and dopaminergic neurotransmission. Monoamine reuptake inhibition — affecting dopamine, norepinephrine, and serotonin transporters — contributes the stimulant component characteristic of PCP-class compounds.supported

    Sigma receptors regulate glutamatergic system via NMDA receptor modulation, which in turn interferes with dopaminergic neurotransmission. pmid:8632719

  • No substance-specific binding affinity data exist for 3-Cl-PCP at any receptor target. The pharmacological class designation (NMDA antagonist, sigma agonist, dopamine receptor ligand) derives from: (1) structural analogy with PCP, from which 3-Cl-PCP differs only by a chlorine atom at the meta position of the phenyl ring; (2) in vivo behavioral pharmacology demonstrating a PCP-like profile in rodents; and (3) class-level receptor binding data from the parent compound.supported

    Assessed locomotor effects of PCP and its 3-OH, 3-MeO, 3-Cl, and 4-MeO analogs in mice. Used drug discrimination in rats to assess PCP-like interoceptive effects. jpet.123.001942

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Pistis (2024) provided expert commentary contextualizing these findings within the evolving new psychoactive substance challenge for novel dissociative analogs.supported

    Editorial/commentary accompanying Shaw et al. 2024 in JPET, discussing the evolving NPS landscape for novel dissociative anesthetic analogs. jpet.124.002109

  • PCP demonstrates a volume of distribution of 6.2 L/kg, reflecting extensive tissue distribution driven by high lipophilicitysupported

    Volume of distribution 6.2 L/kg. pmid:6852275

  • Plasma elimination half-life averages 17.6 hours across 16 subjects, with a range extending beyond 2 days in some individualssupported

    Weighted mean terminal half-life 17.6h (n=16, range up to 2+ days). pmid:6852275

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Hepatic metabolism accounts for approximately 90% of PCP clearance, proceeding via oxidative hydroxylation catalyzed primarily by CYP2B6, with CYP2C19 and CYP3A4 as secondary pathwayspartially supported

    PCP undergoes bioactivation via CYP2B6 and CYP2C19 in human liver microsomes. pmid:17892269

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Only approximately 9% of the parent compound is excreted unchanged in urine; renal excretion is pH-dependent, with acidification increasing clearance and alkalinization reducing itpartially supported

    Renal clearance of PCP is pH-dependent; alkaline urine reduces excretion, acidic urine increases it. pmid:7128004

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • For 3-Cl-PCP specifically, the chlorine substituent at position 3 of the phenyl ring is expected to alter metabolic patterns. In silico ADME modeling for methoxy-substituted PCP analogs demonstrated CYP3A4, CYP2D6, and CYP2C19 as primary metabolizing enzymessupported

    CYP3A4, CYP2D6, CYP2C19 metabolic liability. O-demethylation as primary metabolic pathway. s00204-025-04283-x

summary7 · 6 ok
  • Duration is expected to be prolonged, consistent with the high lipophilicity and extensive tissue redistribution characteristic of PCP-class compounds.supported

    pharmacokinetics (Vd 6.2 L/kg, half-life 17.6h, 90% hepatic metabolism) pmid:20440387

  • A single peer-reviewed primary study exists: Shaw et al. (2024) characterized 3-Cl-PCP's behavioral pharmacology in rodents, demonstrating PCP-like locomotor stimulation, full substitution for PCP in drug discrimination assays, and dose-dependent psychosis-like neurocognitive deficitssupported

    All novel ACXs substituted partially or fully for PCP. PCP and 3-Cl-PCP both elicited dose-dependent psychosis-like neurocognitive deficits not observed with cocaine or morphine. jpet.123.001942

  • As an arylcyclohexylamine, 3-Cl-PCP is presumed to act primarily through non-competitive antagonism of the NMDA receptor at the intrachannel phencyclidine binding site, with secondary activity at sigma receptors and monoamine transporterssupported

    Administration of noncompetitive NMDA/glutamate receptor antagonists, such as phencyclidine (PCP) and ketamine, to humans induces a broad range of schizophrenic-like symptomatology. Comprehensive review of PCP pharmacology, NMDA hypofunction hypothesis, dopaminergic effects. s0893-133x(98)00060-8

  • The behavioral profile in rodents — stimulation, dissociative interoceptive cues, and cognitive disruption — is consistent with this mechanismsupported

    Assessed locomotor effects of PCP and its 3-OH, 3-MeO, 3-Cl, and 4-MeO analogs in mice. Used drug discrimination in rats to assess PCP-like interoceptive effects. 3-Cl-PCP specifically studied for psychosis-like neurocognitive deficits. jpet.123.001942

  • Claim in summary — inconclusiveinconclusiveworking →

  • Dependence liability is rated moderate for both physical and psychological dimensions, based on PCP class datasupported

    PCP infusion in rats induced tolerance within 3.5 days and physical dependence within 7 days. pmid:4040569

  • NMDA receptor antagonists are established psychotomimetics; 3-Cl-PCP produced psychosis-like cognitive deficits in the only published behavioral studysupported

    PCP and 3-Cl-PCP both elicited dose-dependent psychosis-like neurocognitive deficits not observed with cocaine or morphine. jpet.123.001942

comparative-pharmacology6 · 4 ok
  • Clinical case reports document both non-fatal intoxications and fatalities, and the DEA permanently placed it in Schedule I effective April 2026partially supported

    Reports non-fatal intoxication and seven deaths involving 3-MeO-PCP in Sweden 2014-2016. j.forsciint.2017.02.034

  • Direct head-to-head binding data are not available for 3-Cl-PCP, but behavioral pharmacology data from Shaw et al. (2024) provide a framework for comparison.supported

    Assessed locomotor effects of PCP and its 3-OH, 3-MeO, 3-Cl, and 4-MeO analogs in mice. Used drug discrimination in rats. jpet.123.001942

  • Claim in comparative-pharmacology — inconclusiveinconclusiveworking →

  • Claim in comparative-pharmacology — inconclusiveinconclusiveworking →

  • Case reports document prolonged psychiatric sequelae including hallucinations persisting up to six weekssupported

    Hallucinations lasted 6 weeks. j.jflm.2014.04.007

  • Ketamine's plasma half-life of 2–3 hours is an order of magnitude shorter than PCP's 17.6 hours, and 3-Cl-PCP's duration is expected to align more closely with PCP than with ketamine based on shared structural features (intact piperidine ring, absence of carbonyl)supported

    Weighted mean terminal half-life 17.6h (n=16, range up to 2+ days). pmid:6852275

neuroscience6 · 3 ok
  • Claim in neuroscience — inconclusiveinconclusiveworking →

  • Claim in neuroscience — inconclusiveinconclusiveworking →

  • Mesolimbic dopamine activation: NMDA antagonism in the ventral tegmental area, combined with direct monoamine reuptake inhibition, produces secondary dopaminergic activation in the nucleus accumbens — the neural substrate for the stimulant, euphoric, and reinforcing properties of PCP-class compounds.supported

    Comprehensive review of PCP pharmacology, NMDA hypofunction hypothesis, dopaminergic effects. s0893-133x(98)00060-8

  • NMDA receptor hypofunction model of psychosis: PCP-induced psychosis provided the original pharmacological model of schizophrenia, and the NMDA hypofunction hypothesis remains one of the dominant theoretical frameworks in psychosis researchsupported

    NMDA hypofunction hypothesis, dopaminergic effects. s0893-133x(98)00060-8

  • Shaw et al. (2024) demonstrated that 3-Cl-PCP produces the cognitive deficit component of this triad with specificity — cocaine and morphine did not impair rule-governed behavior in the same assay.supported

    PCP and 3-Cl-PCP both elicited dose-dependent psychosis-like neurocognitive deficits not observed with cocaine or morphine. jpet.123.001942

  • Claim in neuroscience — inconclusiveinconclusiveworking →

pharmacokinetic-detail6 · 6 ok
  • The primary metabolic reactions include hydroxylation of the piperidine ring (producing a dihydropyridinium intermediate) and para-hydroxylation of the phenyl ring (producing a quinone methide intermediate)supported

    Two pathways identified: dihydropyridinium formation and quinone methide intermediate from para-hydroxylation. pmid:17892269

  • CYP2B6 is the primary enzyme responsible for both bioactivation pathways, with CYP2C19 and CYP3A4 contributing as secondary enzymes.partially supported

    PCP undergoes bioactivation via CYP2B6 and CYP2C19 in human liver microsomes and recombinant P450 2B enzymes. pmid:17892269

  • CYP2B6 is the primary enzyme responsible for both bioactivation pathways, with CYP2C19 and CYP3A4 contributing as secondary enzymes.partially supported

    Ketamine metabolized by CYP3A4 and CYP2B6 (N-demethylation to norketamine). 20961790.2017.1285219

  • In silico ADME modeling for methoxy-substituted PCP analogs identified CYP3A4, CYP2D6, and CYP2C19 as primary metabolizing enzymes, with O-demethylation as the dominant metabolic stepsupported

    CYP3A4, CYP2D6, CYP2C19 metabolic liability. O-demethylation as primary metabolic pathway. s00204-025-04283-x

  • Urine acidification increases the fraction of ionized drug in the renal tubule, reducing reabsorption and increasing clearancesupported

    Renal clearance of PCP is pH-dependent; alkaline urine reduces excretion, acidic urine increases it. pmid:7128004

  • Modern clinical guidelines do not recommend urine acidification for PCP intoxication due to the risk of acute tubular necrosis.supported

    management (benzodiazepines, activated charcoal, avoid urinary acidification). pmid:20440387

receptor-pharmacology4 · 4 ok
  • The PCP parent compound shows highest affinity for the NMDA channel site (Ki ≈ 2 µM), with substantially lower affinities at serotonergic (Ki ≈ 5 µM) and dopaminergic (Ki ≈ 37 µM) targetssupported

    PCP has NMDA receptor affinity ~2 µM, 5-HT2 affinity ~5 µM, D2 affinity ~37 µM. pmid:12232776

  • PCP binds to sigma sites that partially overlap with the NMDA-associated PCP site, and sigma receptor activation modulates both glutamatergic and dopaminergic neurotransmissionsupported

    Sigma receptors regulate glutamatergic system via NMDA receptor modulation, which in turn interferes with dopaminergic neurotransmission. pmid:8632719

  • PCP binds to sigma sites that partially overlap with the NMDA-associated PCP site, and sigma receptor activation modulates both glutamatergic and dopaminergic neurotransmissionsupported

    Reviews sigma and PCP receptor binding sites; PCP receptor has preferential affinity for phencyclidine analogs and other non-competitive NMDA receptor antagonists. pmid:2172677

  • Shaw et al. (2024) demonstrated that 3-chloro substitution preserves PCP-like behavioral activity — full locomotor stimulation, PCP substitution in drug discrimination, and psychosis-like cognitive effects — suggesting that affinity at the primary NMDA target is not substantially diminished by this modificationsupported

    Addition of Cl at 3-position did not reduce locomotor effectiveness. All novel ACXs substituted partially or fully for PCP. PCP and 3-Cl-PCP both elicited dose-dependent psychosis-like neurocognitive deficits. jpet.123.001942

history2 · 2 ok
  • Extensive structure-activity relationship work on ring-substituted PCP analogs was conducted through the 1960s to 1980s, establishing the arylcyclohexylamine scaffold as a prolific source of pharmacological diversity.supported

    Reviews SAR of arylcyclohexylamine analogs of PCP at PCP-binding sites and drug discrimination. pmid:2899317

  • The methoxy-substituted analogs 3-MeO-PCP and 4-MeO-PCP appeared on the research chemical market around 2011, predating the chloro-substituted variants by approximately a decade. 3-Cl-PCP represents the first chlorine-at-meta-position PCP analog to achieve meaningful distribution as an NPS.partially supported

    Drug appeared on illicit market in 2011. j.forsciint.2017.02.034

clinical-evidence1 · 1 ok
  • The only published primary research on 3-Cl-PCP is a preclinical rodent study examining behavioral pharmacology — locomotor activity, drug discrimination, and neurocognitive effects in mice and ratssupported

    Assessed locomotor effects of PCP and its 3-OH, 3-MeO, 3-Cl, and 4-MeO analogs in mice. Used drug discrimination in rats to assess PCP-like interoceptive effects. 3-Cl-PCP specifically studied for psychosis-like neurocognitive deficits. jpet.123.001942

effects-overview1 · 1 ok
  • 3-Cl-PCP is positioned pharmacologically closer to PCP than to ketamine or methoxetamine — the intact piperidine ring, absence of a carbonyl group, and PCP-equivalent behavioral profile in rodent drug discrimination all support this alignmentsupported

    All novel ACXs substituted partially or fully for PCP. Addition of Cl at 3-position did not reduce locomotor effectiveness. jpet.123.001942

3Sources

28 consumed · sorted by year · feeds = sections resting on it

Sources 1 to 30
yearsourcetierstatusfeeds
2026ADME profile of phencyclidine (PCP) analogues: emerging dissociative hallucinogens 3-MeO-PCP (CAS: 72242-03-6) and 4-MeO-PCP — a multi-in silico approachJurowski K, Kobylarz D, Noga M · Archives of Toxicologydoi:10.1007/s00204-025-04283-xmoderateconsumed2 sections
2026Qualitative and quantitative in silico toxicity profiling of 'angel dust': phencyclidine (PCP) analogues as new psychoactive substances (3-HO-PCP, 3-MeO-PCP, 4-MeO-PCP, 3-HO-PCE, 3-MeO-PCE, 4-MeO-PCE)Noga M, Jurowski K · Archives of Toxicologydoi:10.1007/s00204-025-04242-6moderateconsumed1 section
2026Rhabdomyolysis and Acute Kidney Injury after Use of 3-Methyl-PCP: A Case ReportDeutsch AB, Ebeling-Koning NE, Krotulski AJ, Walton SE, Katz KD · Journal of Medical Toxicologydoi:10.1007/s13181-026-01122-yweakconsumed1 section
2026Schedules of Controlled Substances: Placement of 3-Methoxyphencyclidine in Schedule I (Final Rule)DEAurl:f246d23d56d6c12fweakconsumedcited only
20243-Cl-PCP - PsychonautWikiPsychonautWiki contributorsurl:336adabe029eaefeweakconsumedcited only
2024Phencyclidine-Like Abuse Liability and Psychosis-Like Neurocognitive Effects of Novel Arylcyclohexylamine Drugs of Abuse in RodentsShaw HE, Patel DR, Gannon BM, Fitzgerald LR, Carbonaro TM, Johnson CR, Fantegrossi WE · The Journal of Pharmacology and Experimental Therapeuticsdoi:10.1124/jpet.123.001942moderateconsumed8 sections
2024Phencyclidine-type substances - UNODC Laboratory and Scientific ServiceUNODCurl:64055d374cc5cfabweakconsumedcited only
2024The Evolving Challenge of New Psychoactive Substances: Understanding the Risks and Behavioral Effects of Novel Analogs of Dissociative AnestheticsPistis M · The Journal of Pharmacology and Experimental Therapeuticsdoi:10.1124/jpet.124.002109moderateconsumed1 section
20233-Cl-PCP: Analyzing This Rare Dissociative PsychedelicTripsitterurl:a462e06b970cf029weakconsumedcited only
2023Overdoses and deaths related to the use of ketamine and its analogues: a systematic reviewChaves TV, Wilffert B, Sanchez ZM · The American Journal of Drug and Alcohol Abusedoi:10.1080/00952990.2022.2132506moderateconsumed1 section
20213-Cl-PCP Toxicology Report (CFSRE / Slovenian Police)Center for Forensic Science Research and Education; Slovenian Policeurl:162cbf0f33a0d96cweakconsumedcited only
2017A non-fatal intoxication and seven deaths involving the dissociative drug 3-MeO-PCPJohansson A, Lindstedt D, Roman M, Thelander G, Nielsen EI, Lennborn U, Sandler H, Rubertsson S, Ahlner J, Kronstrand R, Kugelberg FC · Forensic Science Internationaldoi:10.1016/j.forsciint.2017.02.034weakconsumed2 sections
2017Metabolism and metabolomics of ketamine: a toxicological approachDinis-Oliveira RJ · Forensic Sciences Researchdoi:10.1080/20961790.2017.1285219moderateconsumed3 sections
2016Methoxetamine, a novel psychoactive substance with serious adverse pharmacological effects: a review of case reports and preclinical findingsZanda MT, Fadda P, Chiamulera C, Fratta W, Fattore L · Behavioural Pharmacologydoi:10.1097/fbp.0000000000000241moderateconsumedcited only
2014Novel psychoactive substance intoxication resulting in attempted murderStevenson R, Tuddenham L · Journal of Forensic and Legal Medicinedoi:10.1016/j.jflm.2014.04.007weakconsumed2 sections
2007Bioactivation of phencyclidine in rat and human liver microsomes and recombinant P450 2B enzymes: evidence for the formation of a novel quinone methide intermediateDriscoll JP, Kornecki K, Wolkowski JP, Chupak L, Kalgutkar AS, O'Donnell JP · Chemical Research in Toxicologypmid:17892269moderateconsumed3 sections
2007Phencyclidine intoxication and adverse effects: a clinical and pharmacological review of an illicit drugBey T, Patel A · The California Journal of Emergency Medicinepmid:20440387moderateconsumed4 sections
2002NMDA receptor antagonists ketamine and PCP have direct effects on the dopamine D2 and serotonin 5-HT2 receptors - implications for models of schizophreniaKapur S, Seeman P · Molecular Psychiatrypmid:12232776moderateconsumed2 sections
1999The neuropsychopharmacology of phencyclidine: from NMDA receptor hypofunction to the dopamine hypothesis of schizophrenia.Jentsch JD, Roth RH · Neuropsychopharmacologydoi:10.1016/s0893-133x(98)00060-8strongconsumed4 sections
1996Modulation of NMDA and dopaminergic neurotransmissions by sigma ligands: possible implications for the treatment of psychiatric disordersDebonnel G, de Montigny C · Life Sciencespmid:8632719moderateconsumed2 sections
1990Sigma binding sites in the brain; an emerging concept for multiple sites and their relevance for psychiatric disordersItzhak Y, Stein I · Life Sciencespmid:2172677moderateconsumed1 section
1989Different modulation of the binding to two phencyclidine (PCP) receptor subtypes: effects of N-methyl-D-aspartate agonists and antagonistsItzhak Y · Neuroscience Letterspmid:2573019moderateconsumed1 section
1988Receptor mediation of the discriminative stimulus properties of phencyclidine and sigma-opioid agonistsBalster RL, Willetts J · Psychopharmacology Seriespmid:2899317moderateconsumed3 sections
1985Continuous intravenous infusion of phencyclidine in unrestrained rats results in the rapid induction of tolerance and physical dependenceSpain JW, Klingman GI · Journal of Pharmacology and Experimental Therapeuticspmid:4040569moderateconsumed2 sections
1983Effects of SKF-10047 in the phencyclidine-dependent rat: evidence for common receptor mechanismsStafford I, Tomie A, Wagner GC · Drug and Alcohol Dependencepmid:6317323moderateconsumed1 section
1983Phencyclidine disposition in humans after small doses of radiolabeled drug.Cook CE, Perez-Reyes M, Jeffcoat AR, Brine DR · Federation Proceedingspmid:6852275moderateconsumed2 sections
1982Urine pH and phencyclidine excretionPerez-Reyes M, Di Guiseppi S, Brine DR, Smith H, Cook CE · Clinical Pharmacology and Therapeuticspmid:7128004moderateconsumed2 sections
1978The effects of acute and chronic phencyclidine on schedule-controlled behavior in the squirrel monkeyChait LD, Balster RL · Journal of Pharmacology and Experimental Therapeuticspmid:412949moderateconsumed1 section
—Searched ClinicalTrials.gov for "3-chloro phencyclidine dissociative arylcyclohexylamine" — no resultsabsenceno results—
—Searched Federal Register for "3-Cl-PCP scheduling DEA" — no resultsabsenceno results—
Show all 34 sources — 4 more
Sources 31 to 34
yearsourcetierstatusfeeds
—Searched OpenAlex for "3-chlorophencyclidine arylcyclohexylamine NMDA receptor" — no resultsabsenceno results—
—Searched PubChem for "3-Cl-PCP" — no resultsabsenceno results—
—Searched PubMed for "3-Cl-PCP arylcyclohexylamine dissociative binding affinity NMDA" — no resultsabsenceno results—
—Searched PubMed for "phencyclidine ring-substituted analogs structure activity relationship CNS" — no resultsabsenceno results—

4Docket

one filing per activity — decisions, correspondence, reports

  1. 0012026-05-07revisionRevision 1

    Initial LLM generation (v5 pipeline, wiki, prose phase)

    psx:substance/3-cl-pcp/version/1
  2. 0022026-06-04proposal32 value proposals approved together

    one review action inferred from a shared reviewer and instant — the graph records one activity per proposal

    32 items in this filing

    • contraindication · cardiovascular
    • contraindication · respiratory
    • contraindication · cardiovascular
    • contraindication · pregnancy_breastfeeding
    • contraindication · hepatic
    • contraindication · renal
    • contraindication · other
    • contraindication · neurological
    • toxicity
    • dependence · full
    • withdrawal
    • tolerance
    • dose_tier · threshold
    • dose_tier · light
    • dose_tier · common
    • dose_tier · strong
    • dose_tier · heavy
    • timeline · oral · onset
    • timeline · oral · come_up
    • timeline · oral · peak
    • timeline · oral · plateau
    • timeline · oral · resolution
    • timeline · oral · afterglow
    • dosage · oral
    • dosage · insufflated
    • duration · oral · onset
    • duration · oral · come_up
    • duration · oral · peak
    • duration · oral · offset
    • duration · oral · total
    • duration · oral · aftereffects
    psx:substance/3-cl-pcp/proposal/contraindication/5875bb1b-e644-4d5c-bc67-f2b058af05a3
  3. 0032026-06-04publicationPublication — backfill

5Issued documents

what the notice, info card and emergency page said, by hash

Issued documents
documentcontent hashissuedfrom versionsuperseded
info_cardb99f14b4ec3cf4ea4b9b8d97…2026-10-19 20:29Revision 1current
emergencyba304cf8bf8de5b4ec66cb2b…2026-09-04 04:27Revision 1current
info_card75e7119912e7f874e2376234…2026-09-04 04:27Revision 1superseded2026-10-19
noticed64f1d67defc4c768ba3201a…2026-09-04 04:27Revision 1current