Literature summary for 2.5.1.2 extracted from

Boggs, K.; Spooner, D.; Honeyfield, D.; Shull, D.; Wertz, T.; Sweet, S.
Phylogeny and foraging mode correspond with thiaminase activity in freshwater fishes Potential links to environmental factors (2019), Freshw. Sci., 38, 605-615 .

No PubMed abstract available

Search for more literature for 2.5.1.2

Organism

Organism	UniProt	Comment	Textmining
Alosa pseudoharengus	-	-	-
Campostoma anomalum	-	-	-
Catostomus commersonii	-	-	-
Dorosoma cepedianum	-	-	-
Etheostoma olmstedi	-	-	-
Exoglossum maxillingua	-	-	-
Fundulus diaphanus	-	-	-
Luxilus cornutus	-	-	-
Notropis hudsonius	-	-	-
Rhinichthys cataractae	-	-	-
Semotilus corporalis	-	-	-

Synonyms

Synonyms	Comment	Organism
thiaminase I	-	Notropis hudsonius
thiaminase I	-	Catostomus commersonii
thiaminase I	-	Alosa pseudoharengus
thiaminase I	-	Fundulus diaphanus
thiaminase I	-	Campostoma anomalum
thiaminase I	-	Luxilus cornutus
thiaminase I	-	Exoglossum maxillingua
thiaminase I	-	Semotilus corporalis
thiaminase I	-	Rhinichthys cataractae
thiaminase I	-	Etheostoma olmstedi
thiaminase I	-	Dorosoma cepedianum

General Information

General Information	Comment	Organism
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Notropis hudsonius
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Catostomus commersonii
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Alosa pseudoharengus
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Fundulus diaphanus
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Campostoma anomalum
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Luxilus cornutus
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Exoglossum maxillingua
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Semotilus corporalis
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Rhinichthys cataractae
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Etheostoma olmstedi
evolution	thiaminase activity is generally higher in the basal teleosts (clupeids, cyprinids, and catostomids) than in the more derived neoteleosts (percids and centrarchids). Thus, thiaminase activity may be a function of trait selection over evolutionary time	Dorosoma cepedianum

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Release 2023.1 (January 2023)