Overview
- External ontology
- mediadive.medium:398 (source link unavailable) — THERMOPLASMA VOLCANIUM MEDIUM
- Applications
-
- Microbial cultivation
- Notes
- Source: DSMZ | Link: https://www.dsmz.de/microorganisms/medium/pdf/DSMZ_Medium398.pdf
Composition
flowchart LR
CultureMech_001507["thermoplasma_volcanium_medium"]
ing0_KH2PO4["KH2PO4"]
CultureMech_001507 --> ing0_KH2PO4
CHEBI_63036["CHEBI:63036"]
ing0_KH2PO4 -.-> CHEBI_63036
ing1_MgSO4_x_7_H2O["MgSO4 x 7 H2O"]
CultureMech_001507 --> ing1_MgSO4_x_7_H2O
CHEBI_31795["CHEBI:31795"]
ing1_MgSO4_x_7_H2O -.-> CHEBI_31795
ing2_CaCl2_x_2_H2O["CaCl2 x 2 H2O"]
CultureMech_001507 --> ing2_CaCl2_x_2_H2O
CHEBI_86158["CHEBI:86158"]
ing2_CaCl2_x_2_H2O -.-> CHEBI_86158
ing3__NH4_2SO4["(NH4)2SO4"]
CultureMech_001507 --> ing3__NH4_2SO4
CHEBI_62946["CHEBI:62946"]
ing3__NH4_2SO4 -.-> CHEBI_62946
ing4_Yeast_extract["Yeast extract"]
CultureMech_001507 --> ing4_Yeast_extract
ing5_Glucose["Glucose"]
CultureMech_001507 --> ing5_Glucose
CHEBI_17234["CHEBI:17234"]
ing5_Glucose -.-> CHEBI_17234
ing6_Sulfur["Sulfur"]
CultureMech_001507 --> ing6_Sulfur
CHEBI_26833["CHEBI:26833"]
ing6_Sulfur -.-> CHEBI_26833
Ingredients (7)
| # | Ingredient | Concentration | Ontology | Notes |
|---|---|---|---|---|
| 1 |
KH2PO4
H2O4P.K 136.084 g/mol
|
3 G_PER_L |
CHEBI:63036
potassium dihydrogen phosphate
|
|
| 2 |
MgSO4 x 7 H2O
7H2O.Mg.O4S 246.473 g/mol
|
1 G_PER_L |
CHEBI:31795
magnesium sulfate heptahydrate
|
|
| 3 |
CaCl2 x 2 H2O
Ca.2Cl.2H2O 147.014 g/mol
|
0.25 G_PER_L |
CHEBI:86158
calcium chloride dihydrate
|
|
| 4 |
(NH4)2SO4
2H4N.O4S 132.141 g/mol
|
0.2 G_PER_L |
CHEBI:62946
ammonium sulfate
|
|
| 5 | Yeast extract | 1 G_PER_L | ||
| 6 |
Glucose
C6H12O6 180.156 g/mol
|
5 G_PER_L |
CHEBI:17234
glucose
|
|
| 7 |
Sulfur
S 32.067 g/mol
|
4 G_PER_L |
CHEBI:26833
sulfur atom
|
(for anaerobic media only) |
Preparation
- Adjust pH of the mineral base to about 2 with sulfuric acid and autoclave. Add glucose and yeast extract from filter-sterilized stock solutions.
- Check pH to be 2 to 3.
- For anaerobic growth, the acidified mineral base containing sulfur is filled into serum bottles (20 ml per 100 ml bottle) under N2 + CO2 (80 + 20) gas mixture. Then, the bottles are sterilized by tyndallisation. Yeast extract and glucose are added from separately sterilized stock solutions.
Target organisms
No target organisms are recorded.
Provenance
| Timestamp | Curator | Action | Notes |
|---|---|---|---|
| 2026-01-26T17:53:11.040610Z | mediadive-import | Imported from MediaDive | Source: DSMZ, ID: 398 |
| 2026-03-13T06:19:04.790397Z | culturemech-id-assigner-v1.0 | Assigned CultureMech ID | Assigned stable identifier: CultureMech:001507 |
| 2026-03-17T06:30:36.000000Z | mediaingredientmech-enrichment-v1.0 | Added MediaIngredientMech links | Linked ingredients to MediaIngredientMech identifiers |
| 2026-03-17T19:45:16.853954+00:00 | normalize_media_names_to_snake_case.py | NAME_NORMALIZED | Normalized name from "THERMOPLASMA VOLCANIUM MEDIUM" to "thermoplasma_volcanium_medium" for consistent matching |
| 2026-06-05T07:41:50.421598+00:00 | mim-legacy-to-chebi-migration-v1.0 | Refreshed legacy MediaIngredientMech links to CHEBI keying | Replaced 6 legacy mediaingredientmech_term link(s) with mediaingredientmech_chebi_term (id-safe: ingredient's own CHEBI + label). MIM deprecated the MediaIngredientMech:NNNNNN id scheme. |
| 2026-06-10T07:47:13.117940+00:00 | primary-term-label-canonicalization-v1.0 | Canonicalized primary term label to OBO canonical (OAK) | 2 primary term(s); ingredient name resolved by OAK sqlite:obo:chebi. |
| 2026-09-13T00:00:00-07:00 | repair_komodo_398_thermoplasma_score10.py | RESOLVED_KOMODO_398_THERMOPLASMA_TOPOLOGY | Moved the family root from strain-specific KOMODO Medium 398.1 to the DSMZ/MediaDive THERMOPLASMA VOLCANIUM MEDIUM record. |
| 2026-10-07T10:55:41.454416+00:00 | codex | CURATED_MEDIUM_CONCENTRATION_SOURCE_EVIDENCE | Exact medium/source membership, ingredient inventory/forms, physical-state conditions, literal snippets, and arithmetic checked. Stock boundaries, source-only rows, preparation context, and variants remain explicit follow-up tasks; secondary chemical mappings unchanged. |