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psx:substance/theobromine/src/pmid:3744189

src2026-09-07recordconsumed

derived from · upstream

none recorded

feeds · downstream

Closure of psx:substance/theobromine/src/pmid:3744189: 52 upstream, 107 downstream.

psx:substance/theobromine/src/pmid:3744189
  ├─ used  src/doi:10.1007/s11064-018-2492-0  Impact of Coffee and Cacao Purine Metabolites on Neuroplasticity and Neurodegenerative Disease
  ├─ used  src/doi:10.1080/10408398.2011.641041  Cocoa phytochemicals: recent advances in molecular mechanisms on health
  ├─ used  src/pmid:3979003  High levels of methylxanthines in chocolate do not alter theobromine disposition
  ├─ used  src/url:7473550cf02b121f  Theobromine - Wikipedia (discovery history)
  ├─ used  src/pmid:15548587  Theobromine inhibits sensory nerve activation and cough
  ├─ used  src/doi:10.3390/nu11112800  Sub-Chronic Consumption of Dark Chocolate Enhances Cognitive Function and Releases Nerve Growth Factors: A Parallel-Group Randomized Trial
  ├─ used  src/doi:10.3390/ijms231810510  Theobromine Targets Adenosine Receptors to Control Hippocampal Neuronal Function and Damage
  ├─ used  src/pmid:6765610  The toxicology of cocoa and methylxanthines: a review of the literature
  ├─ used  src/doi:10.1016/j.physbeh.2011.07.027  Differential contributions of theobromine and caffeine on mood, psychomotor performance and blood pressure
  ├─ used  src/pmid:15549276  Methylxanthines are the psycho-pharmacologically active constituents of chocolate
  ├─ used  src/url:74a1a79f3ffe84b0  EFSA Scientific Opinion: Flavouring Group Evaluation 49, Revision 1 - xanthine alkaloids (includes theobromine)
  ├─ used  src/url:803f4d05c36ca86f  Theobromine poisoning - Wikipedia / Merck Veterinary Manual / ASPCA
  ├─ used  src/pmid:22692392
  ├─ used  src/url:420949410eeda197  Theobromine - Coffee, Tea, Mate, Methylxanthines and Methylglyoxal - NCBI Bookshelf NBK507032
  ├─ used  src/doi:10.1001/archinte.166.4.411  Cocoa intake, blood pressure, and cardiovascular mortality: the Zutphen Elderly Study
  ├─ used  src/doi:10.3945/ajcn.112.047373  Effect of cocoa and theobromine consumption on serum HDL-cholesterol concentrations: a randomized controlled trial
  ├─ used  src/doi:10.1039/d3fo00555k  Theobromine supplementation in combination with a low-calorie diet improves cardiovascular risk factors in overweight and obese subjects with metabolic syndrome: a randomized controlled trial
  ├─ used  src/doi:10.1016/j.vph.2015.02.010  Effects of high flavanol dark chocolate on cardiovascular function and platelet aggregation
  ├─ used  src/doi:10.1016/j.freeradbiomed.2023.01.003  Flavan-3-ol-methylxanthine interactions: Modulation of flavan-3-ol bioavailability in volunteers with a functional colon and an ileostomy
  ├─ used  src/pmid:10215755  Cytochrome P450 isoform selectivity in human hepatic theobromine metabolism
  ├─ used  src/doi:10.1002/ptr.7916  A comprehensive insight into the molecular effect of theobromine on cardiovascular-related risk factors: A systematic review of in vitro and in vivo studies
  ├─ used  src/doi:10.3389/fmolb.2017.00059  Effect of Theobromine Consumption on Serum Lipoprotein Profiles in Apparently Healthy Humans with Low HDL-Cholesterol Concentrations
  ├─ used  src/doi:10.1007/s00394-018-1612-6  Theobromine consumption does not improve fasting and postprandial vascular function in overweight and obese subjects
  ├─ used  src/doi:10.1016/j.clnu.2017.06.007  Theobromine does not affect postprandial lipid metabolism and duodenal gene expression, but has unfavorable effects on postprandial glucose and insulin responses in humans
  ├─ used  src/doi:10.1038/s41598-018-20068-y  The acute effects on duodenal gene expression in healthy men following consumption of a low-fat meal enriched with theobromine or fat
  ├─ used  src/doi:10.1080/10641955.2018.1446977  Changes in endothelial function, arterial stiffness and blood pressure in pregnant women after consumption of high-flavanol and high-theobromine chocolate: a double blind randomized clinical trial
  ├─ used  src/doi:10.7759/cureus.98908  Chocolate-Induced Sinus Tachycardia: A Sweet Surprise
  ├─ used  src/pmid:3798364  Teratogenicity of paraxanthine (1,7-dimethylxanthine) in C57BL/6J mice
  ├─ used  src/pmid:3744190  Evaluation of the perinatal, postnatal and teratogenic effects of cocoa powder and theobromine in Sprague-Dawley/CD rats
  ├─ derived_from  gen/7a44414d-50f8-47c9-a6ec-5417803b78e9  Generation — pipeline-v5
  ├─ generated_by  pub/51043400-5b68-4128-905d-10d28c5ba383  Publication — backfill
    ├─ used  search/e9749dfd-142d-46ac-874a-100c2d0a2f9d  Searched PubChem for "theobromine"
    ├─ used  search/169f7ef5-f737-4773-b85a-828957c273f9  Searched PubMed for "theobromine pharmacology mechanism action adenosine receptor"
    ├─ used  search/4bf81c34-8b05-4eab-937a-955dbd5ed18e  Searched PubMed for "theobromine pharmacokinetics bioavailability metabolism humans"
    ├─ used  search/34e0d583-bc6f-414c-ac5b-067bb3f703fc  Searched PubMed for "theobromine human study cardiovascular blood pressure heart rate"
    ├─ used  search/157ec8b2-1023-4291-83a1-7202db452da3  Searched PubMed for "theobromine cough antitussive clinical trial"
    ├─ used  search/27307afb-59ed-466c-850b-d5e6fa527427  Searched PubMed for "theobromine chocolate cocoa methylxanthine cognitive mood"
    ├─ used  search/381b6e4e-77ff-4b0a-9670-b0b58dbc738f  Searched PubMed for "theobromine lipid cholesterol cardiovascular risk randomized controlled trial"
    ├─ used  search/a4a674a3-1212-45b2-ae8e-6f7aa653f604  Searched PubMed for "theobromine pharmacokinetics half-life metabolism CYP cytochrome"
    ├─ used  search/6c49bfb6-61bf-46e0-9112-ca7580a8c84c  Searched PubMed for "theobromine absorption distribution metabolism elimination half-life pharmacokinetics"
    ├─ used  search/544a7591-3ef7-4d4f-bea3-c44fdcface1e  Searched ClinicalTrials.gov for "theobromine"
    ├─ used  search/e4008dab-2af7-4f36-aa57-4ab3e3954739  Searched PubMed for "theobromine diuretic bronchodilator vasodilator methylxanthine"
    ├─ used  search/8c594049-5e1f-4024-8cfb-bc2043b38f1b  Searched PubMed for "theobromine vascular augmentation index arterial stiffness"
    ├─ used  search/4588f07e-e118-4198-8ad4-6ebff94859a2  Searched WebSearch for "theobromine discovery history isolation Woskresensky 1841"
    ├─ used  search/009a2dba-50c0-43c8-bcdc-d18ceba369c1  Searched WebSearch for "theobromine legal status scheduling US UK EU Canada Australia unscheduled"
    ├─ used  search/7c21e8fb-0b50-4792-a54e-6d2cd98ff285  Searched WebSearch for "theobromine LD50 toxicity dogs lethal dose"
    ├─ used  search/50a3d5da-1f2f-4611-a5a7-fd1b1bf856b5  Searched WebSearch for "theobromine DrugBank pharmacology interactions half-life bioavailability CYP1A2"
    ├─ used  search/be0ddddd-0c5e-4917-92c5-13432b6cf14e  Searched PubMed for "theobromine cytochrome P450 CYP isoform selectivity hepatic metabolism Gates"
    ├─ used  search/886268c7-cc71-4b4a-b80c-68b92f17ef75  Searched PubMed for "theobromine adenosine receptor A1 A2A hippocampal neuronal"
    ├─ used  search/cfe85a9e-21f1-4f09-9ebc-66b6cb3d4747  Searched WebSearch for "theobromine adenosine A1 A2A receptor binding affinity Ki"
    ├─ used  search/41396ee2-c3aa-4ae0-bcd5-686cf83b5d94  Searched PubMed for "theobromine HDL cholesterol Maastricht Netherlands intervention"
    └─ used  search/c7a3fed4-2267-4500-96fa-fff1550d41da  Searched PubMed for "theobromine cocoa content dark milk chocolate levels"
├─ used  version/1  Revision 1
├─ used  claim/365346e3-8750-4a82-bd23-d4cd29421bb2  Claim in safety — supported
├─ used  claim/44ecb4a1-deaa-4546-9616-0f912b5084a3  Claim in safety — supported
├─ used  claim/2b60b322-c194-45ea-8eb8-293dd5baf066  Claim in safety — supported
  ├─ derived_from  issue/notice@fb6e5e61c982  Issued notice
  ├─ derived_from  issue/info_card@5851d5e647fb  Issued info_card
  ├─ derived_from  issue/emergency@777b5863d801  Issued emergency
  ├─ derived_from  issue/info_card@c7bd813a437b  Issued info_card
  ├─ informed_by  section/safety.full@1
    ├─ used  claim/8dacf8ca-8ac9-4170-97f6-a4de17ba7b7c  Claim in summary — inconclusive  working
    ├─ used  claim/be6e1f1b-4f7e-4cba-872a-441f364fc14a  Claim in pharmacology — inconclusive  working
    ├─ used  claim/9af0a45a-a747-402e-80c9-efe7f0e72a0c  Claim in alkaloid-profile — inconclusive  working
    ├─ used  claim/529352d4-8abf-4754-a11c-b4a5bf3acd01  Claim in comparative-pharmacology — inconclusive  working
    ├─ used  claim/c17e4707-043c-4cf0-ab04-0afea9a615ea  Claim in neuroscience — inconclusive  working
    ├─ used  claim/dd6ecb6f-b83d-4155-932e-eb4f93a4deff  Claim in summary — supported
    ├─ used  claim/802db782-373b-4410-a7af-420f79262290  Claim in pharmacology — supported
    ├─ used  claim/729a22d3-81b9-4ea0-87b0-76d25f4201d1  Claim in summary — supported
    ├─ used  claim/3e540c85-4639-42b4-acad-83fae27f7c04  Claim in pharmacology — supported
    ├─ used  claim/45e65680-f2f7-48cb-b6c5-9c8c541fe585  Claim in pharmacology — supported
    ├─ used  claim/eb4d2409-542c-4e63-8df5-963b1c7428c3  Claim in pharmacology — supported
    ├─ used  claim/85d65439-e584-45c6-9616-59371614bceb  Claim in pharmacology — supported
    ├─ used  claim/58ddd0a1-33be-4e2f-96ba-fba9f68f2f04  Claim in pharmacology — supported
    ├─ used  claim/82e6d742-79fd-4929-9318-71aac0b796a2  Claim in pharmacology — supported
    ├─ used  claim/e6c8ccfd-eb49-4a81-9216-e0df8f50fe4d  Claim in safety — supported
    ├─ used  claim/b5fd59c3-1c07-402b-a0f7-b9dfedb48a16  Claim in pharmacokinetic-detail — inconclusive  working
    ├─ used  claim/4519b855-a597-4ea3-a1f1-9b2d75cf8625  Claim in pharmacokinetic-detail — supported
    ├─ used  claim/6693d05b-740f-411b-a101-f49e5c535fb3  Claim in summary — partially_supported
    ├─ used  claim/072eb8e6-fa7a-41bd-bdf2-e6d242415f57  Claim in pharmacology — supported
    ├─ used  claim/6b79e65d-910a-4b2e-9e05-e615b4a94881  Claim in history — partially_supported
    ├─ used  claim/1674d105-24db-4969-8ac1-6fbedea7cf0a  Claim in clinical-evidence — supported
    ├─ used  claim/532b9c44-d27d-4057-98ff-a1fa59cc3148  Claim in clinical-evidence — supported
    ├─ used  claim/84c33cc0-2f51-4448-a08f-c6cee8770d70  Claim in summary — inconclusive  working
    ├─ used  claim/e089e5e6-f60f-4aaa-b66c-fa5212528bcb  Claim in history — inconclusive  working
    ├─ used  claim/2092811f-4a02-4453-95d7-2958b00cc95a  Claim in clinical-evidence — inconclusive  working
    ├─ used  claim/1bdbc759-ad90-4cdb-8b86-27554de43653  Claim in receptor-pharmacology — inconclusive  working
    ├─ used  claim/8bc67dc0-0344-4cdb-9a0d-b78993db889e  Claim in summary — supported
    ├─ used  claim/0483a3ea-938c-46af-8781-42a70844ca0a  Claim in summary — inconclusive  working
    ├─ used  claim/dac32805-316b-46b7-8cda-c709092ff7cb  Claim in pharmacology — inconclusive  working
    ├─ used  claim/ab92ee7b-3b0a-425a-9515-958e395131b0  Claim in pharmacology — supported
    ├─ used  claim/41083446-aed6-4a33-a4ac-3a93f42d3604  Claim in pharmacology — supported
    ├─ used  claim/dd1d114f-b2d3-45ee-abc0-398f57f72d9b  Claim in receptor-pharmacology — supported
    ├─ used  claim/ed390583-39d8-4965-8ee0-b2bb2728fb61  Claim in receptor-pharmacology — supported
    ├─ used  claim/abe289bd-89e6-48c6-b4ff-5d483342118a  Claim in neuroscience — inconclusive  working
    ├─ used  claim/28be3b4c-9e44-412d-8f53-eb2a75e1faa6  Claim in neuroscience — supported
    ├─ used  claim/28effe34-c3a6-4e73-a766-95594ea52e53  Claim in neuroscience — supported
    ├─ used  claim/448f3a15-f64d-4bb9-8ab1-1f33201d646f  Claim in neuroscience — supported
    ├─ used  claim/3e555373-376f-42f8-a0d4-ebf9238c3a6f  Claim in summary — inconclusive  working
    ├─ used  claim/199b360f-dc0f-489e-bd6c-77a66c061a24  Claim in pharmacology — inconclusive  working
    ├─ used  claim/6eeeb311-40e0-4300-a6f8-fe540a54a293  Claim in pharmacology — inconclusive  working
    ├─ used  claim/b0a8dee6-cbaa-45b5-84bd-7cf2d1ca258b  Claim in botanical-overview — inconclusive  working
    ├─ used  claim/cd64d2b0-de07-43f0-a3ca-a43da124b08d  Claim in history — inconclusive  working
    ├─ used  claim/d0b1363a-b0e4-47d0-8ce5-75ed1e00b3e7  Claim in chemistry — inconclusive  working
    ├─ used  claim/1111c190-c4b7-4789-958f-d687f79ba13c  Claim in receptor-pharmacology — inconclusive  working
    ├─ used  claim/67813149-73a0-468d-b13a-80399fe09516  Claim in summary — supported
    ├─ used  claim/165a6eee-a6dd-4f63-800a-2de88e5a0abb  Claim in alkaloid-profile — supported
    ├─ used  claim/f7e1b904-ee4f-4fcc-9bb4-a225a8f2ddb1  Claim in clinical-evidence — supported
    ├─ used  claim/c0734c05-73d0-4d02-ae00-90ef841ec509  Claim in safety — supported
    ├─ used  claim/921ea8d6-4d49-4075-91d2-353bd548c9ed  Claim in safety — inconclusive  working
    ├─ used  claim/ec2f035c-7a23-4659-a20d-d8dede8390f5  Claim in comparative-pharmacology — inconclusive  working
    ├─ used  claim/20ec9c2b-1e7c-421f-b5e6-108d7cf15cb3  Claim in summary — inconclusive  working
    ├─ used  claim/8f43f085-abfa-4116-928d-623bce2f2c22  Claim in safety — inconclusive  working
    ├─ used  claim/a82a1387-2023-4160-9a5e-89525807d46a  Claim in comparative-pharmacology — inconclusive  working
    ├─ used  claim/26605e78-8e11-44e9-ac2c-f9c80ed9c63b  Claim in neuroscience — inconclusive  working
    ├─ used  claim/42eb3a6b-850c-4edd-88a0-0193e16e67a3  Claim in botanical-overview — partially_supported
    ├─ used  claim/eb877a35-a0a3-41c9-9ac5-0cee0945cfd5  Claim in botanical-overview — supported
    ├─ used  claim/807546c8-7c1e-469b-8e34-86c33328897f  Claim in alkaloid-profile — supported
    ├─ used  claim/e7916c1c-88be-446e-9f0b-8fafb65638bd  Claim in alkaloid-profile — supported
    ├─ used  claim/5829ac85-b0fa-452e-83e0-34893e5196fc  Claim in history — supported
    ├─ used  claim/38a9137a-635f-42a8-bad8-4e3b92dbc3df  Claim in clinical-evidence — inconclusive  working
    ├─ used  claim/3f41cbf3-8814-4329-92e2-1f3eda77520c  Claim in history — inconclusive  working
    ├─ used  claim/51e6206b-82c9-4617-bba3-40a9999c751e  Claim in clinical-evidence — supported
    ├─ used  claim/e1a047bf-d568-4d45-9f66-ae2606281202  Claim in clinical-evidence — supported
    ├─ used  claim/5a6bb926-81cf-4384-8f5f-1c7ce7cd6d54  Claim in clinical-evidence — supported
    ├─ used  claim/14dbd173-6da2-46a7-af1a-5e8e2935475e  Claim in pharmacology — supported
    ├─ used  claim/378fcd27-51d0-43af-86cb-62a328becf5e  Claim in clinical-evidence — supported
    ├─ used  claim/fad65d80-94e1-4cd7-ad7b-72384a12e253  Claim in pharmacology — supported
    ├─ used  claim/777e7a7b-3620-4e97-b8cb-4d20fbf317e0  Claim in safety — supported
    ├─ used  claim/40f28adf-7c29-469f-acf9-4231e1b4f8bb  Claim in pharmacology — supported
    ├─ used  claim/15da72a6-02d3-41c7-82af-9f1baa1cd090  Claim in pharmacology — partially_supported
    ├─ used  claim/d9840453-516c-49e3-ac5d-59b09dae3c12  Claim in safety — supported
    ├─ used  claim/65bfa7a9-b59e-448e-bbf6-4f89919a088c  Claim in safety — partially_supported
    ├─ used  claim/55561598-a232-4c5e-bc23-a5abbe67a16d  Claim in safety — inconclusive  working
    ├─ used  claim/c5deeb76-21fd-4411-a25f-30ac599cf297  Claim in safety — supported
    ├─ used  claim/bf5f8a19-7a52-4a1c-9523-c10211da13fe  Claim in pharmacokinetic-detail — partially_supported
    ├─ used  claim/0a339afa-9e91-483e-afc2-8fa5543a113c  Claim in clinical-evidence — supported
    ├─ used  claim/8e11fc20-d7ce-4403-a054-cd0e75254f74  Claim in clinical-evidence — partially_supported
    ├─ used  claim/87f0b6b4-2343-41bc-aebc-411d423c338d  Claim in safety — supported
    ├─ used  claim/e1d750f6-8641-4c7c-a93a-09324e32b523  Claim in safety — supported
    ├─ used  claim/6bdc9606-658e-4638-86be-fbddc297acdd  Claim in clinical-evidence — supported
    ├─ used  claim/75bff25b-6271-46b2-9b8d-65dc115e6f38  Claim in safety — inconclusive  working
    ├─ used  claim/c273a62b-d9db-4629-9d32-2d1a75c5b862  Claim in clinical-evidence — inconclusive  working
    ├─ used  claim/bc3b7355-ddc3-40a5-bf77-a29774a9608b  Claim in safety — supported
    ├─ used  claim/063cb3c1-a34c-4910-8903-14e8655b836c  Claim in safety — supported
    ├─ used  claim/d6377c98-25cf-4eb6-b2fa-15e657c7a87c  Claim in safety — partially_supported
    ├─ used  claim/97c75b2f-034f-4f98-88ab-2a1f8ff96b52  Claim in safety — supported
    ├─ used  claim/404adde1-5818-49e1-a7e2-d9da0dd09dfb  Claim in safety — supported
      ├─ informed_by  section/summary.full@1
      ├─ informed_by  section/pharmacology.full@1
      ├─ informed_by  section/alkaloid-profile.full@1
      ├─ informed_by  section/comparative-pharmacology.full@1
      ├─ informed_by  section/neuroscience.full@1
      ├─ informed_by  section/pharmacokinetic-detail.full@1
      ├─ informed_by  section/history.full@1
      ├─ informed_by  section/clinical-evidence.full@1
      ├─ informed_by  section/receptor-pharmacology.full@1
      ├─ informed_by  section/botanical-overview.full@1
      └─ informed_by  section/chemistry.full@1

indented by distance from this node, not by parentage

1Provenance card

the boundary, as counts

Sources

2917 with DOI

14 strong · 10 moderate · 5 weak

Compilations

12026-05-07T13:55:14.771Z

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

Decisions

23last ruled 2026-06-04

0 awaiting a ruling

Issued documents

42026-10-19T20:34:16.652Z

notice · info card · emergency

Searches

211 with no results

queries and counts on the build

Claims checked

9059 supported

59 supported · 31 not

Correspondence

0received

consent field ships in Phase 4

Edges

267

derivations recorded for this entity

Complete over 29 sources, 1 compilation, and 23 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/theobromine/archive

2Build

one panel per compilation run

generation run 2026-05-07

60 min completedmodel pipeline-v5plan not recordedrun/95eec1b4…

Selection

results seen105
selected by the model34
consumed as sources29

Verification

claims checked90
supported51
partially supported8
not supported0
inconclusive31
  • record
  • seen / partial
  • working

The model's own caveats

none raised on this run

Reproduce

inputs
29 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
21 searches — query, source, results, what was kept and why
21 searches for this run
#sourcequeryseenkeptrationale
1PubMedtheobromine cough antitussive clinical trial22—
2PubMedtheobromine pharmacology mechanism action adenosine receptor101—
3PubMedtheobromine chocolate cocoa methylxanthine cognitive mood44—
4PubMedtheobromine human study cardiovascular blood pressure heart rate83—
5PubMedtheobromine lipid cholesterol cardiovascular risk randomized controlled trial43—
6PubMedtheobromine pharmacokinetics bioavailability metabolism humans102—
7PubChemtheobromine11Single definitive chemical identity record for theobromine
8WebSearchtheobromine legal status scheduling US UK EU Canada Australia unscheduled102—
9PubMedtheobromine HDL cholesterol Maastricht Netherlands intervention52—
10WebSearchtheobromine discovery history isolation Woskresensky 1841102—
11WebSearchtheobromine DrugBank pharmacology interactions half-life bioavailability CYP1A2103—
12ClinicalTrials.gov · absencetheobromine00—
13PubMedtheobromine absorption distribution metabolism elimination half-life pharmacokinetics21—
14WebSearchtheobromine LD50 toxicity dogs lethal dose102—
15PubMedtheobromine adenosine receptor A1 A2A hippocampal neuronal11—
16PubMedtheobromine vascular augmentation index arterial stiffness21—
17PubMedtheobromine pharmacokinetics half-life metabolism CYP cytochrome10—
18PubMedtheobromine cytochrome P450 CYP isoform selectivity hepatic metabolism Gates11—
19PubMedtheobromine cocoa content dark milk chocolate levels11—
20WebSearchtheobromine adenosine A1 A2A receptor binding affinity Ki100—
21PubMedtheobromine diuretic bronchodilator vasodilator methylxanthine32—
90 claims by section — every cited sentence, checked against its source
safety20 · 16 ok
  • A case report documented sinus tachycardia in a patient consuming approximately 180 g of dark chocolate nightly for 2 weeks, representing cumulative methylxanthine load from both theobromine and caffeine.supported

    Case report of 63-year-old male presenting with palpitations and dizziness after consuming ~180g chocolate nightly for 2 weeks. Sinus tachycardia resolved with bisoprolol, IV fluids, and dietary counselling. Chocolate methylxanthines can increase heart rate and blood pressure. cureus.98908

  • Theobromine at 500 mg/day for 4 weeks produced unfavorable postprandial glucose and insulin responses in a randomized controlled trialsupported

    4-week theobromine (500 mg/day) study... unfavorable effects on postprandial glucose and insulin responses. j.clnu.2017.06.007

  • The approximate maternal LD₅₀ by gavage in rabbits approached 200 mg/kg in repeated-dose study.supported

    Significant maternal mortality (40%) at 200 mg TBR/kg/day (approached maternal LD50 by gavage). pmid:3744189

  • Theobromine has been established as teratogenic in animal studies at high doses, with a pattern of malformations similar to other methylxanthines (primarily skeletal and limb)partially supported

    Caffeine, theobromine, and theophylline all established as teratogenic in animal studies at high doses. pmid:3798364

  • In rats, a delay in osteogenesis was observed at doses exceeding 50× typical human consumption, with no significant teratogenicity at doses equivalent to human chocolate consumptionsupported

    At doses >50x human consumption, modest osteogenesis delay in fetuses. No significant teratogenicity at dietary doses equivalent to chocolate consumption. pmid:3744190

  • In rabbits, developmental variations occurred at 125–200 mg/kg/day by gavage, with no teratogenicity at dietary levels.supported

    Developmental variations at 125-200 mg/kg. No teratogenicity at dietary levels. pmid:3744189

  • Claim in safety — inconclusiveinconclusiveworking →

  • At 700 mg, the only controlled study of isolated theobromine effects reported decreased self-reported calmness but not increased anxiety per sesupported

    Theobromine alone decreased self-reported calmness 3h after ingestion and lowered blood pressure relative to placebo. j.physbeh.2011.07.027

  • One study directly tested pharmacokinetic tolerance: one week of high daily theobromine consumption did not alter elimination half-life, volume of distribution, clearance, or urinary metabolite profile, demonstrating absence of auto-induction.supported

    High levels of methylxanthines in chocolate do not alter theobromine disposition [title] pmid:3979003

  • Claim in safety — inconclusiveinconclusiveworking →

  • The primary interaction pathway is metabolic: CYP1A2 contributes partially to theobromine N7-demethylation, with CYP2E1 also involved.supported

    CYP1A2 contributes partially to N7-demethylation (7-MX formation), variably 0-65%. Multiple CYP isoforms involved in theobromine metabolism. pmid:10215755

  • Smoking increases clearance by approximately 33%.partially supported

    Plasma clearance of theobromine is induced in cigarette smokers. pmid:10215755

  • Claim in safety — inconclusiveinconclusiveworking →

  • Claim in safety — inconclusiveinconclusiveworking →

  • Flavanol interaction: Theobromine significantly enhances flavan-3-ol bioavailability when co-ingested with cocoa, increasing epicatechin Cmax by approximately 21% in subjects with a functional colon through colonic mechanismssupported

    Theobromine (but not caffeine) significantly increased flavan-3-ol Cmax by +21% in subjects with functional colon. No effect in ileostomists. Theobromine modulates flavan-3-ol bioavailability through colonic mechanisms. j.freeradbiomed.2023.01.003

  • Impaired glucose tolerance or diabetes: Theobromine at 500 mg/day produced unfavorable postprandial glucose and insulin responsessupported

    unfavorable effects on postprandial glucose and insulin responses. j.clnu.2017.06.007

  • Pregnancy: Animal teratogenicity data at high doses and the absence of controlled human data support precautionary avoidance of high-dose theobromine supplementation during pregnancysupported

    At doses >50x human consumption, modest osteogenesis delay in fetuses. No significant teratogenicity at dietary doses equivalent to chocolate consumption. pmid:3744190

  • Pregnancy: Animal teratogenicity data at high doses and the absence of controlled human data support precautionary avoidance of high-dose theobromine supplementation during pregnancysupported

    Significant maternal mortality (40%) at 200 mg TBR/kg/day... Developmental variations at 125-200 mg/kg. No teratogenicity at dietary levels. pmid:3744189

  • Cardiovascular conditions: At extreme doses, theobromine contributes to tachycardiasupported

    Sinus tachycardia resolved with bisoprolol, IV fluids, and dietary counselling. Chocolate methylxanthines can increase heart rate and blood pressure. cureus.98908

  • Concurrent CYP1A2 inhibitor use: Potent CYP1A2 inhibitors may increase theobromine plasma concentrations; individuals on fluvoxamine, ciprofloxacin, or similar agents should be aware of potentially prolonged theobromine effects.supported

    CYP1A2 contributes partially to N7-demethylation (7-MX formation), variably 0-65%. pmid:10215755

pharmacology18 · 14 ok
  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Electrophysiological recordings in mouse hippocampal synapses demonstrated that 30 µM theobromine facilitates synaptic transmission through A1R antagonism and impairs long-term potentiation through A2AR antagonismsupported

    Theobromine (30 µM) facilitated synaptic transmission while decreasing LTP magnitude. A1R antagonist eliminated theobromine-dependent facilitation; A2AR antagonist abrogated LTP impairment. ijms231810510

  • These dual effects were confirmed through pharmacological blockade: the selective A1R antagonist DPCPX eliminated theobromine-dependent facilitation of synaptic transmission, while the A2AR antagonist SCH58261 and genetic A2AR deletion abrogated theobromine-induced LTP impairment.supported

    A1R antagonist eliminated theobromine-dependent facilitation; A2AR antagonist abrogated LTP impairment. ijms231810510

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Claim in pharmacology — inconclusiveinconclusiveworking →

  • Theobromine directly inhibits capsaicin-induced sensory nerve depolarization in guinea-pig and human vagus nerve preparations, a peripheral mechanism underlying its antitussive activitysupported

    Theobromine directly inhibits capsaicin-induced sensory nerve depolarization of guinea-pig and human vagus nerve suggestive of an inhibitory effect on afferent nerve activation. Actions of theobromine appear to be peripherally mediated. pmid:15548587

  • The compound also inhibits platelet aggregation induced by ADP and TRAP6 in a flavanol-independent manner, and enhances flavan-3-ol bioavailability through colonic mechanisms when co-ingested with cocoa, increasing epicatechin Cmax by approximately 21% in subjects with a functional colon.supported

    Pre-incubation of platelets with theobromine attenuated platelet aggregation induced by ADP or TRAP6. Platelet aggregation modulated by a flavanol-independent mechanism likely due to theobromine. j.vph.2015.02.010

  • The compound also inhibits platelet aggregation induced by ADP and TRAP6 in a flavanol-independent manner, and enhances flavan-3-ol bioavailability through colonic mechanisms when co-ingested with cocoa, increasing epicatechin Cmax by approximately 21% in subjects with a functional colon.supported

    Theobromine (but not caffeine) significantly increased flavan-3-ol Cmax by +21% in subjects with functional colon. No effect in ileostomists. Theobromine modulates flavan-3-ol bioavailability through colonic mechanisms. j.freeradbiomed.2023.01.003

  • Bioavailability from a chocolate matrix is approximately 80% of that from aqueous solutionsupported

    Relative bioavailability of theobromine in chocolate was 80% vs. solution. pmid:3979003

  • Theobromine is the most bioavailable compound from consumed cocoa in human plasma, exceeding caffeine, epicatechin, catechin, and procyanidins.supported

    Among the phytochemicals present in consumed cocoa, theobromine is most available in human plasma, followed by caffeine, (-)-epicatechin, catechin, and procyanidins. 10408398.2011.641041

  • Volume of distribution is 0.76 L/kg, indicating moderate tissue distribution.supported

    Vd 0.76 L/kg pmid:3979003

  • Urinary metabolite profiling after a single oral dose of [8-¹⁴C]theobromine in humans yielded: 42% 7-methylxanthine (7-MX), 20% 3-methylxanthine (3-MX), 18% unchanged theobromine, 10% 7-methyluric acid, and 10% 6-amino-5-[N-methylformylamino]-1-methyluracilsupported

    Urinary metabolites: 42% 7-methylxanthine, 20% 3-methylxanthine, 18% theobromine, 10% 7-methyluric acid, 10% 6-amino-5[N-methylformylamino]-1-methyluracil. pmid:3979003

  • High daily theobromine consumption for one week did not alter this urinary profile or pharmacokinetic parameters.supported

    High levels of methylxanthines in chocolate do not alter theobromine disposition [title] pmid:3979003

  • CYP1A2 contributes partially (0–65%) to N7-demethylation forming 7-MX, with CYP2E1 also involvedsupported

    CYP1A2 contributes partially to N7-demethylation (7-MX formation), variably 0-65%. Multiple CYP isoforms involved in theobromine metabolism. pmid:10215755

  • The elimination half-life is approximately 10.0 hours in humans maintained on methylxanthine abstinencesupported

    Theobromine t1/2 10.0 hours pmid:3979003

  • Plasma clearance is 0.88 mL/min/kgsupported

    clearance 0.88 ml/min/kg pmid:3979003

  • In cigarette smokers, plasma clearance increases by approximately 33%, likely via CYP1A2 induction.partially supported

    Plasma clearance of theobromine is induced in cigarette smokers. pmid:10215755

clinical-evidence13 · 10 ok
  • Claim in clinical-evidence — inconclusiveinconclusiveworking →

  • Some RCTs demonstrate HDL improvement: Neufingerl and colleagues found increased HDL-cholesterol concentrations in a controlled trial separating theobromine from cocoa flavonoids, and a 12-week trial reported cardiovascular risk factor improvement with 450 mg/day theobromine in metabolic syndrome patientssupported

    12-week pure TB supplementation (450 mg/day) combined with low-calorie diet in 80 participants with metabolic syndrome. Significantly decreased WC, LDL-c/HDL-c, TG/HDL-c, TC/HDL-c and increased HDL-c. d3fo00555k

  • Acute blood pressure lowering was demonstrated at 700 mg single oral dose in 24 healthy femalessupported

    Effects of theobromine (700 mg)... in 24 healthy female subjects. Theobromine alone... lowered blood pressure relative to placebo 1h after ingestion. j.physbeh.2011.07.027

  • A separate trial found no significant blood pressure effect at 450 mg/day for 12 weeks in metabolic syndrome patientssupported

    No significant differences in blood pressure, total cholesterol, LDL-c, fasting blood glucose, or insulin resistance. d3fo00555k

  • Theobromine at 500 mg/day for 4 weeks produced unfavorable postprandial glucose and insulin responses in humans, without affecting fasting lipid levels or duodenal lipid gene expressionpartially supported

    No effect on postprandial lipid metabolism, but unfavorable effects on postprandial glucose and insulin responses. j.clnu.2017.06.007

  • At 850 mg single acute dose, theobromine downregulated glucose metabolism genes in duodenal biopsies.supported

    Theobromine (850mg) in crossover study; inhibited duodenal expression of genes related to glucose metabolism. s41598-018-20068-y

  • IRCT20091114002709N59: 12-week pure theobromine supplementation (450 mg/day) with low-calorie diet in metabolic syndrome.supported

    12-week pure TB supplementation (450 mg/day) combined with low-calorie diet in 80 participants with metabolic syndrome. d3fo00555k

  • In a capsaicin cough challenge model, theobromine suppressed cough through direct inhibition of sensory nerve activation in the vagus nerve, with no reported adverse effectssupported

    theobromine suppresses capsaicin-induced cough with no adverse effects. Theobromine directly inhibits capsaicin-induced sensory nerve depolarization of guinea-pig and human vagus nerve. pmid:15548587

  • The mechanism was confirmed as peripherally mediated — theobromine inhibited capsaicin-induced depolarization in both guinea-pig and human vagus nerve preparationssupported

    Theobromine directly inhibits capsaicin-induced sensory nerve depolarization of guinea-pig and human vagus nerve... Actions of theobromine appear to be peripherally mediated. pmid:15548587

  • Conversely, theobromine was ineffective for HDL in subjects with a metabolic syndrome-like lipid phenotype, and no improvement in HDL or vascular function was found in overweight and obese subjects.supported

    No effect on HDL subclasses. TB not effective in low-HDL, high-TG phenotype. fmolb.2017.00059

  • Theobromine inhibits platelet aggregation induced by ADP and TRAP6 in a mechanism independent of cocoa flavanols, suggesting a direct antiplatelet effect attributable to the methylxanthine component of chocolate.supported

    Pre-incubation of platelets with theobromine attenuated platelet aggregation induced by ADP or TRAP6. Platelet aggregation modulated by a flavanol-independent mechanism likely due to theobromine. j.vph.2015.02.010

  • Claim in clinical-evidence — inconclusiveinconclusiveworking →

  • Claim in clinical-evidence — inconclusiveinconclusiveworking →

summary10 · 5 ok
  • Claim in summary — inconclusiveinconclusiveworking →

  • The compound is the dominant methylxanthine in chocolate by mass and the most bioavailable constituent of consumed cocoa in human plasmasupported

    Among the phytochemicals present in consumed cocoa, theobromine is most available in human plasma, followed by caffeine, (-)-epicatechin, catechin, and procyanidins. 10408398.2011.641041

  • Elimination half-life is approximately 10 hours in methylxanthine-naïve humans.supported

    Theobromine t1/2 10.0 hours pmid:3979003

  • Modern research interest centers on antitussive efficacy — where theobromine outperformed codeine in a capsaicin cough challenge model — cardiovascular risk modulation, cognitive enhancement via nerve growth factor release, and neuroprotection in Alzheimer's disease modelspartially supported

    In a randomized, double-blind, placebo-controlled study in man, theobromine suppresses capsaicin-induced cough with no adverse effects. pmid:15548587

  • Claim in summary — inconclusiveinconclusiveworking →

  • Modern research interest centers on antitussive efficacy — where theobromine outperformed codeine in a capsaicin cough challenge model — cardiovascular risk modulation, cognitive enhancement via nerve growth factor release, and neuroprotection in Alzheimer's disease modelssupported

    Theobromine prevented LTP deficits and neuronal loss in Aβ1-42 exposed hippocampal preparations. ijms231810510

  • Claim in summary — inconclusiveinconclusiveworking →

  • Claim in summary — inconclusiveinconclusiveworking →

  • The subjective profile is correspondingly mild: at 700 mg oral, the only controlled study isolating theobromine's psychoactive effects found decreased self-reported calmness and peripheral blood pressure lowering with no measurable effect on alertness or psychomotor performancesupported

    Theobromine alone decreased self-reported calmness 3h after ingestion and lowered blood pressure relative to placebo 1h after ingestion... No treatment effect on DSST performance. j.physbeh.2011.07.027

  • Claim in summary — inconclusiveinconclusiveworking →

neuroscience6 · 3 ok
  • Claim in neuroscience — inconclusiveinconclusiveworking →

  • Claim in neuroscience — inconclusiveinconclusiveworking →

  • In mouse hippocampal preparations, theobromine (30 µM) produced bidirectional effects on synaptic function: facilitation of basal synaptic transmission (A1R-mediated) and impairment of long-term potentiation (A2AR-mediated)supported

    Theobromine (30 µM) facilitated synaptic transmission while decreasing LTP magnitude. A1R antagonist eliminated theobromine-dependent facilitation; A2AR antagonist abrogated LTP impairment. ijms231810510

  • Theobromine prevented LTP deficits and neuronal loss in hippocampal preparations exposed to amyloid-β₁₋₄₂ peptides, a model of Alzheimer's disease-related neurotoxicitysupported

    Theobromine prevented LTP deficits and neuronal loss in Aβ1-42 exposed hippocampal preparations. ijms231810510

  • Claim in neuroscience — inconclusiveinconclusiveworking →

  • Can theobromine's neuroprotective effects in Alzheimer's models translate to human clinical benefit? The hippocampal protection observed at 30 µM in vitro requires confirmation in vivo at achievable plasma concentrations.supported

    Theobromine prevented LTP deficits and neuronal loss in Aβ1-42 exposed hippocampal preparations. ijms231810510

history5 · 2 ok
  • Claim in history — inconclusiveinconclusiveworking →

  • The Zutphen Elderly Study demonstrated an inverse association between cocoa intake, blood pressure, and cardiovascular mortality in a 15-year prospective cohort, catalyzing investigation of cocoa's individual bioactive constituentssupported

    470 elderly men followed 15 years. Highest tertile cocoa intake: 3.7 mmHg lower systolic BP, 50% lower cardiovascular mortality vs. lowest tertile. archinte.166.4.411

  • A landmark 2005 randomized controlled trial demonstrated that theobromine inhibits capsaicin-induced cough in humans through peripheral sensory nerve inhibition, outperforming codeine in the same modelpartially supported

    In a randomized, double-blind, placebo-controlled study in man, theobromine suppresses capsaicin-induced cough with no adverse effects... Actions of theobromine appear to be peripherally mediated. pmid:15548587

  • Claim in history — inconclusiveinconclusiveworking →

  • Claim in history — inconclusiveinconclusiveworking →

alkaloid-profile4 · 3 ok
  • Theobromine concentrations in chocolate products, measured by HPLC, range from 0.72–0.76 mg/g in milk chocolate couverture to 0.82–1.14 mg/g in dark chocolate couverturesupported

    HPLC analysis: Dark chocolate 0.82-1.14 mg/g theobromine; milk chocolate 0.72-0.76 mg/g pmid:22692392

  • White chocolate contains approximately 0.74 mg/gsupported

    white chocolate 0.74 mg/g pmid:22692392

  • These dietary exposures are well below the threshold at which isolated psychoactive effects have been demonstrated in controlled studies (~700 mg).supported

    Effects of theobromine (700 mg)... Theobromine alone decreased self-reported calmness 3h after ingestion and lowered blood pressure relative to placebo. j.physbeh.2011.07.027

  • Claim in alkaloid-profile — inconclusiveinconclusiveworking →

receptor-pharmacology4 · 2 ok
  • Claim in receptor-pharmacology — inconclusiveinconclusiveworking →

  • At A1 receptors, functional potency is substantially higher — electrophysiological recordings demonstrate measurable A1R antagonism at 30 µM in hippocampal slice preparations — but precise Ki values remain uncharacterized.supported

    Theobromine (30 µM) facilitated synaptic transmission... A1R antagonist eliminated theobromine-dependent facilitation. ijms231810510

  • At 30 µM, theobromine produces two distinct receptor-mediated effects:supported

    Theobromine (30 µM) facilitated synaptic transmission while decreasing LTP magnitude. ijms231810510

  • Claim in receptor-pharmacology — inconclusiveinconclusiveworking →

botanical-overview3 · 2 ok
  • In processed chocolate products, theobromine content ranges from approximately 0.72–0.76 mg/g in milk chocolate to 0.82–1.14 mg/g in dark chocolate, exceeding caffeine content by a factor of 10–20×partially supported

    HPLC analysis: Dark chocolate 0.82-1.14 mg/g theobromine; milk chocolate 0.72-0.76 mg/g; white chocolate 0.74 mg/g. Theobromine consistently higher than caffeine. pmid:22692392

  • White chocolate retains approximately 0.74 mg/g.supported

    white chocolate 0.74 mg/g pmid:22692392

  • Claim in botanical-overview — inconclusiveinconclusiveworking →

comparative-pharmacology3 · 0 ok
  • Claim in comparative-pharmacology — inconclusiveinconclusiveworking →

  • Claim in comparative-pharmacology — inconclusiveinconclusiveworking →

  • Claim in comparative-pharmacology — inconclusiveinconclusiveworking →

pharmacokinetic-detail3 · 2 ok
  • Claim in pharmacokinetic-detail — inconclusiveinconclusiveworking →

  • The quantitative metabolite profile after a single oral dose of radiolabeled theobromine in humans:supported

    Urinary metabolites: 42% 7-methylxanthine, 20% 3-methylxanthine, 18% theobromine, 10% 7-methyluric acid, 10% 6-amino-5[N-methylformylamino]-1-methyluracil. pmid:3979003

  • Cigarette smoking, a potent CYP1A2 inducer, increases theobromine plasma clearance by approximately 33%partially supported

    Plasma clearance of theobromine is induced in cigarette smokers. CYP1A2 contributes partially to N7-demethylation (7-MX formation), variably 0-65%. pmid:10215755

chemistry1 · 0 ok
  • Claim in chemistry — inconclusiveinconclusiveworking →

3Sources

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

Sources
yearsourcetierstatusfeeds
2025Chocolate-Induced Sinus Tachycardia: A Sweet SurpriseRabi M, Khan L, Rabi A · Cureusdoi:10.7759/cureus.98908weakconsumed1 section
2024Theobromine - Wikipedia (discovery history)url:7473550cf02b121fweakconsumedcited only
2024Theobromine poisoning - Wikipedia / Merck Veterinary Manual / ASPCAurl:803f4d05c36ca86fweakconsumedcited only
2023A comprehensive insight into the molecular effect of theobromine on cardiovascular-related risk factors: A systematic review of in vitro and in vivo studiesSharifi-Zahabi E, Hajizadeh-Sharafabad F, Nachvak SM, Mirzaian S, Darbandi S, Shidfar F · Phytotherapy Researchdoi:10.1002/ptr.7916strongconsumedcited only
2023Flavan-3-ol-methylxanthine interactions: Modulation of flavan-3-ol bioavailability in volunteers with a functional colon and an ileostomyOttaviani JI, Fong RY, Borges G, et al. · Free Radical Biology & Medicinedoi:10.1016/j.freeradbiomed.2023.01.003strongconsumed2 sections
2023Theobromine supplementation in combination with a low-calorie diet improves cardiovascular risk factors in overweight and obese subjects with metabolic syndrome: a randomized controlled trialSharifi-Zahabi E, Rezvani N, Hajizadeh-Sharafabad F, Hosseini-Baharanchi FS, Shidfar F, Rahimi M · Food & Functiondoi:10.1039/d3fo00555kstrongconsumed1 section
2022Theobromine Targets Adenosine Receptors to Control Hippocampal Neuronal Function and DamageValada P, Alcada-Morais S, Cunha RA, Lopes JP · International Journal of Molecular Sciencesdoi:10.3390/ijms231810510moderateconsumed4 sections
2019Impact of Coffee and Cacao Purine Metabolites on Neuroplasticity and Neurodegenerative DiseaseCamandola S, Plick N, Mattson MP · Neurochemical Researchdoi:10.1007/s11064-018-2492-0moderateconsumed5 sections
2019Sub-Chronic Consumption of Dark Chocolate Enhances Cognitive Function and Releases Nerve Growth Factors: A Parallel-Group Randomized TrialSumiyoshi E, Matsuzaki K, Sugimoto N, Tanabe Y, Hara T, Katakura M, Miyamoto M, Mishima S, Shido O · Nutrientsdoi:10.3390/nu11112800strongconsumed3 sections
2019Theobromine consumption does not improve fasting and postprandial vascular function in overweight and obese subjectsSmolders L, Mensink RP, van den Driessche JJ, Joris PJ, Plat J · European Journal of Nutritiondoi:10.1007/s00394-018-1612-6strongconsumedcited only
2018Changes in endothelial function, arterial stiffness and blood pressure in pregnant women after consumption of high-flavanol and high-theobromine chocolate: a double blind randomized clinical trialBabar A, Bujold E, Leblanc V, Lavoie-Lebel E, Paquette J, Bazinet L, Lemieux S, Marc I, Abdous B, Dodin S · Hypertension in Pregnancydoi:10.1080/10641955.2018.1446977strongconsumed2 sections
2018The acute effects on duodenal gene expression in healthy men following consumption of a low-fat meal enriched with theobromine or fatSmolders L, Mensink RP, Boekschoten MV, de Ridder RJJ, Plat J · Scientific Reportsdoi:10.1038/s41598-018-20068-ystrongconsumed1 section
2018Theobromine - Coffee, Tea, Mate, Methylxanthines and Methylglyoxal - NCBI Bookshelf NBK507032url:420949410eeda197weakconsumedcited only
2018Theobromine does not affect postprandial lipid metabolism and duodenal gene expression, but has unfavorable effects on postprandial glucose and insulin responses in humansSmolders L, Mensink RP, Boekschoten MV, de Ridder RJJ, Plat J · Clinical Nutritiondoi:10.1016/j.clnu.2017.06.007strongconsumed2 sections
2017Effect of Theobromine Consumption on Serum Lipoprotein Profiles in Apparently Healthy Humans with Low HDL-Cholesterol ConcentrationsJacobs DM, Smolders L, Lin Y, de Roo N, Trautwein EA, van Duynhoven J, Mensink RP, Plat J, Mihaleva VV · Frontiers in Molecular Biosciencesdoi:10.3389/fmolb.2017.00059strongconsumed1 section
2017EFSA Scientific Opinion: Flavouring Group Evaluation 49, Revision 1 - xanthine alkaloids (includes theobromine)url:74a1a79f3ffe84b0weakconsumedcited only
2015Effects of high flavanol dark chocolate on cardiovascular function and platelet aggregationRull G, Mohd-Zain ZN, Shiel J, Lundberg MH, Collier DJ, Johnston A, Warner TD, Corder R · Vascular Pharmacologydoi:10.1016/j.vph.2015.02.010strongconsumed2 sections
2014Cocoa phytochemicals: recent advances in molecular mechanisms on healthKim J, Kim J, Shim J, Lee CY, Lee KW, Lee HJ · Critical Reviews in Food Science and Nutritiondoi:10.1080/10408398.2011.641041moderateconsumed2 sections
2013Effect of cocoa and theobromine consumption on serum HDL-cholesterol concentrations: a randomized controlled trialNeufingerl N, Zebregs YE, Schuring EA, Trautwein EA · American Journal of Clinical Nutritiondoi:10.3945/ajcn.112.047373strongconsumed2 sections
2011Differential contributions of theobromine and caffeine on mood, psychomotor performance and blood pressureMitchell ES, Slettenaar M, vd Meer N, Transler C, Jans L, Quadt F, Berry M · Physiology & Behaviordoi:10.1016/j.physbeh.2011.07.027strongconsumed5 sections
2006Cocoa intake, blood pressure, and cardiovascular mortality: the Zutphen Elderly StudyBuijsse B, Feskens EJM, Kok FJ, Kromhout D · Archives of Internal Medicinedoi:10.1001/archinte.166.4.411moderateconsumed1 section
2005Theobromine inhibits sensory nerve activation and coughUsmani OS, Belvisi MG, Patel HJ, Crispino N, Birrell MA, Korbonits M, Korbonits D, Barnes PJ · FASEB Journalpmid:15548587strongconsumed4 sections
2004Methylxanthines are the psycho-pharmacologically active constituents of chocolateSmit HJ, Gaffan EA, Rogers PJ · Psychopharmacologypmid:15549276strongconsumed4 sections
1999Cytochrome P450 isoform selectivity in human hepatic theobromine metabolismGates S, Miners JO · British Journal of Clinical Pharmacologypmid:10215755moderateconsumed3 sections
1986Evaluation of the perinatal, postnatal and teratogenic effects of cocoa powder and theobromine in Sprague-Dawley/CD ratsTarka SM, Applebaum RS, Borzelleca JF · Food and Chemical Toxicologypmid:3744190moderateconsumed1 section
1986Evaluation of the teratogenic potential of cocoa powder and theobromine in New Zealand White rabbitsTarka SM, Applebaum RS, Borzelleca JF · Food and Chemical Toxicologypmid:3744189moderateconsumed1 section
1986Teratogenicity of paraxanthine (1,7-dimethylxanthine) in C57BL/6J miceYork RG, Randall JL, Scott WJ · Teratologypmid:3798364moderateconsumed1 section
1985High levels of methylxanthines in chocolate do not alter theobromine dispositionShively CA, Tarka SM, Arnaud MJ, Dvorchik BH, Passananti GT, Vesell ES · Clinical Pharmacology and Therapeuticspmid:3979003moderateconsumed4 sections
1982The toxicology of cocoa and methylxanthines: a review of the literatureTarka SM · Critical Reviews in Toxicologypmid:6765610moderateconsumed6 sections
—Searched ClinicalTrials.gov for "theobromine" — 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/theobromine/version/1
  2. 0022026-06-04proposal21 value proposals approved together

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

    21 items in this filing

    • contraindication · pregnancy_breastfeeding
    • contraindication · cardiovascular
    • contraindication · other
    • dose_tier · threshold
    • dose_tier · light
    • dose_tier · common
    • dose_tier · strong
    • dose_tier · heavy
    • timeline · oral · onset
    • timeline · oral · peak
    • timeline · oral · resolution
    • toxicity
    • dependence · full
    • withdrawal
    • tolerance
    • dosage · oral
    • duration · oral · onset
    • duration · oral · peak
    • duration · oral · total
    • duration · oral · aftereffects
    psx:substance/theobromine/proposal/contraindication/c793f991-6281-46d0-8b25-a740c75b2d96
  3. 0032026-06-04publicationPublication — backfill

5Issued documents

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

Issued documents
documentcontent hashissuedfrom versionsuperseded
info_cardc7bd813a437b05e60e59a318…2026-10-19 20:34Revision 1current
emergency777b5863d801327b008f5610…2026-09-04 04:32Revision 1current
info_card5851d5e647fbfa30f2581a1c…2026-09-04 04:32Revision 1superseded2026-10-19
noticefb6e5e61c98289464444fa49…2026-09-04 04:32Revision 1current