Summary of Study ST003296
This data is available at the NIH Common Fund's National Metabolomics Data Repository (NMDR) website, the Metabolomics Workbench, https://www.metabolomicsworkbench.org, where it has been assigned Project ID PR002046. The data can be accessed directly via it's Project DOI: 10.21228/M84V61 This work is supported by NIH grant, U2C- DK119886.
See: https://www.metabolomicsworkbench.org/about/howtocite.php
This study contains a large results data set and is not available in the mwTab file. It is only available for download via FTP as data file(s) here.
| Study ID | ST003296 |
| Study Title | Exploring the Effects of Toxic Road Runoff Contaminants (6PPD-quinone, 9,10-anthraquinone) on Juvenile Salmonids with a Multi-OMICs Approach (Liver) |
| Study Type | Metabolomics |
| Study Summary | Pacific salmonid populations have been declining predominantly due to anthropogenic factors such as climate change, habitat loss, and water contaminants derived from urban storm water runoff. Growing urbanism has resulted in areas of impervious surfaces leading to increased storm water runoff entering urban rivers and streams. Storm water runoff has been correlated to escalating rates of pre-spawn mortality (PSM) events in coho salmon in Pacific Northwest streams. PSM events in salmonids are characterized by rapid onset symptoms including surface swimming, loss of equilibrium, and fin splaying that precede mass adult population mortality prior to egg fertilization. In 2020, a chemical derived from tires, N-(1,3-Dimethylbutyl)-N'-phenyl-p-phenylenediamine-quinone (6Q), was isolated from storm water runoff and subsequent toxicity tests resulted in acute coho salmon mortality exhibiting a 24-hour dose at fifty percent population mortality (LC50) of 95 ng/L. 6Q is an oxidation product derived from N-(1,3-Dimethylbutyl)-N'-phenyl-p-phenylenediamine (6PPD), which is used by tire manufacturers as an antioxidant and antiozonant. The toxic mechanism of 6Q is not yet known, but it is suspected to induce an inhibitory effect on cytochrome P450 (CYP450) genes encoding for CYP450 enzymes, which are responsible for xenobiotic metabolism. We hypothesize 6Q exposure affects salmonids’ ability to synthesize essential structural and cell signaling molecules and inhibits their ability to metabolize other water contaminants such as polycyclic hydrocarbons (PAHs). PAHs are a chemical class of concern due to their potential carcinogenic, teratogenic, and mutagenic effects in aquatic organisms. Thus, this project will focus on the commonly detected water PAH contaminant anthraquinone and its impact on salmonids when co-exposed to 6Q. Further, climate change may be a contributing factor to salmonid susceptibility to water contaminants. Increasing global carbon dioxide emissions have affected aquatic species significantly due to the ability of rivers and streams to transport or store atmospheric carbon dioxide, resulting in rapidly rising water temperatures having potential to exacerbate salmonid sensitivity to water contaminant |
| Institute | Oregon State University |
| Department | Environmental and Molecular Toxicology |
| Laboratory | Water Quality Toxicology |
| Last Name | Garcia-Jaramillo |
| First Name | Manuel |
| Address | 1007 SW Campus Way, Corvallis, OR, 97331 |
| manuel.g.jaramillo@oregonstate.edu | |
| Phone | 541-737-5714 |
| Submit Date | 2024-07-03 |
| Num Groups | 6 |
| Total Subjects | 270 |
| Num Males | NA |
| Num Females | NA |
| Raw Data Available | Yes |
| Raw Data File Type(s) | mzML |
| Analysis Type Detail | LC-MS |
| Release Date | 2025-10-01 |
| Release Version | 1 |
Select appropriate tab below to view additional metadata details:
Project:
| Project ID: | PR002046 |
| Project DOI: | doi: 10.21228/M84V61 |
| Project Title: | Exploring the Effects of Toxic Road Runoff Contaminants (6PPD-quinone, 9,10-anthraquinone) on Juvenile Salmonids with a Multi-OMICs Approach |
| Project Type: | Untargeted Metabolomics |
| Project Summary: | Pacific salmonid populations have been declining predominantly due to anthropogenic factors such as climate change, habitat loss, and water contaminants derived from urban storm water runoff. Growing urbanism has resulted in areas of impervious surfaces leading to increased storm water runoff entering urban rivers and streams. Storm water runoff has been correlated to escalating rates of pre-spawn mortality (PSM) events in coho salmon in Pacific Northwest streams. PSM events in salmonids are characterized by rapid onset symptoms including surface swimming, loss of equilibrium, and fin splaying that precede mass adult population mortality prior to egg fertilization. In 2020, a chemical derived from tires, N-(1,3-Dimethylbutyl)-N'-phenyl-p-phenylenediamine-quinone (6Q), was isolated from stormwater runoff and subsequent toxicity tests resulted in acute coho salmon mortality exhibiting a 24-hour dose at fifty percent population mortality (LC50) of 95 ng/L. 6Q is an oxidation product derived from N- (1,3-Dimethylbutyl)-N'-phenyl-p-phenylenediamine (6PPD), which is used by tire manufacturers as an antioxidant and antiozonant. The toxic mechanism of 6Q is not yet known, but it is suspected to induce an inhibitory effect on cytochrome P450 (CYP450) genes encoding for CYP450 enzymes, which are responsible for xenobiotic metabolism. We hypothesize 6Q exposure affects salmonids’ ability to synthesize essential structural and cell signaling molecules and inhibits their ability to metabolize other water contaminants such as polycyclic hydrocarbons (PAHs). PAHs are a chemical class of concern due to their potential carcinogenic, teratogenic, and mutagenic effects in aquatic organisms. Thus, this project will focus on the commonly detected water PAH contaminant anthraquinone and its impact on salmonids when co-exposed to 6Q. Further, climate change may be a contributing factor to salmonid susceptibility to water contaminants. Increasing global carbon dioxide emissions have affected aquatic species significantly due to the ability of rivers and streams to transport or store atmospheric carbon dioxide, resulting in rapidly rising water temperatures having potential to exacerbate salmonid sensitivity to water contaminant |
| Institute: | Oregon State University |
| Department: | Environmental and Molecular Toxicology |
| Laboratory: | Water Quality Toxicology |
| Last Name: | Garcia-Jaramillo |
| First Name: | Manuel |
| Address: | 1007 SW Campus Way, Corvallis, OR, 97331 |
| Email: | manuel.g.jaramillo@oregonstate.edu |
| Phone: | 541-737-5714 |
Subject:
| Subject ID: | SU003417 |
| Subject Type: | Fish |
| Subject Species: | Oncorhynchus tshawytscha; Oncorhynchus mykiss; Oncorhynchus kisutch |
| Taxonomy ID: | 74940; 8022; 8019 |
| Weight Or Weight Range: | 3-5 g |
| Height Or Height Range: | NA |
| Species Group: | Fish |
Factors:
Subject type: Fish; Subject species: Oncorhynchus tshawytscha; Oncorhynchus mykiss; Oncorhynchus kisutch (Factor headings shown in green)
| mb_sample_id | local_sample_id | Treatment | Treatment | Species |
|---|---|---|---|---|
| SA357717 | 343_6Q_L2_2_CH | 6PPD-quinone | Chinook | |
| SA357718 | 538_6Q_L5_3_CH | 6PPD-quinone | Chinook | |
| SA357719 | 284_6Q_L5_1_CH | 6PPD-quinone | Chinook | |
| SA357720 | 353_6Q_L2_3_CH | 6PPD-quinone | Chinook | |
| SA357721 | 298_6Q_L5_2_CH | 6PPD-quinone | Chinook | |
| SA357722 | 281_6Q_L3_1_CH | 6PPD-quinone | Chinook | |
| SA357723 | 403_6Q_L1_1_CH | 6PPD-quinone | Chinook | |
| SA357724 | 346_6Q_L3_2_CH | 6PPD-quinone | Chinook | |
| SA357725 | 499_6Q_L4_2_CH | 6PPD-quinone | Chinook | |
| SA357726 | 348_6Q_L1_3_CH | 6PPD-quinone | Chinook | |
| SA357727 | 399_6Q_L2_1_CH | 6PPD-quinone | Chinook | |
| SA357728 | 481_6Q_L3_3_CH | 6PPD-quinone | Chinook | |
| SA357729 | 476_6Q_L1_2_CH | 6PPD-quinone | Chinook | |
| SA357730 | 378_6Q_L4_3_CH | 6PPD-quinone | Chinook | |
| SA357731 | 282_6Q_L4_1_CH | 6PPD-quinone | Chinook | |
| SA357732 | 328_6Q_L2_2_CO | 6PPD-quinone | Coho | |
| SA357733 | 418_6Q_L3_3_CO | 6PPD-quinone | Coho | |
| SA357734 | 531_6Q_L2_1_CO | 6PPD-quinone | Coho | |
| SA357735 | 511_6Q_L5_3_CO | 6PPD-quinone | Coho | |
| SA357736 | 475_6Q_L1_3_CO | 6PPD-quinone | Coho | |
| SA357737 | 347_6Q_L4_1_CO | 6PPD-quinone | Coho | |
| SA357738 | 411_6Q_L5_2_CO | 6PPD-quinone | Coho | |
| SA357739 | 435_6Q_L3_2_CO | 6PPD-quinone | Coho | |
| SA357740 | 517_6Q_L3_1_CO | 6PPD-quinone | Coho | |
| SA357741 | 303_6Q_L2_3_CO | 6PPD-quinone | Coho | |
| SA357742 | 405_6Q_L1_2_CO | 6PPD-quinone | Coho | |
| SA357743 | 329_6Q_L4_2_CO | 6PPD-quinone | Coho | |
| SA357744 | 514_6Q_L4_3_CO | 6PPD-quinone | Coho | |
| SA357745 | 513_6Q_L5_1_CO | 6PPD-quinone | Coho | |
| SA357746 | 497_6Q_L4_1_RT | 6PPD-quinone | Rainbow Trout | |
| SA357747 | 313_6Q_L4_3_RT | 6PPD-quinone | Rainbow Trout | |
| SA357748 | 496_6Q_L4_2_RT | 6PPD-quinone | Rainbow Trout | |
| SA357749 | 429_6Q_L3_3_RT | 6PPD-quinone | Rainbow Trout | |
| SA357750 | 428_6Q_L3_2_RT | 6PPD-quinone | Rainbow Trout | |
| SA357751 | 400_6Q_L1_1_RT | 6PPD-quinone | Rainbow Trout | |
| SA357752 | 472_6Q_L2_1_RT | 6PPD-quinone | Rainbow Trout | |
| SA357753 | 488_6Q_L2_3_RT | 6PPD-quinone | Rainbow Trout | |
| SA357754 | 460_6Q_L2_2_RT | 6PPD-quinone | Rainbow Trout | |
| SA357755 | 458_6Q_L5_3_RT | 6PPD-quinone | Rainbow Trout | |
| SA357756 | 274_6Q_L5_1_RT | 6PPD-quinone | Rainbow Trout | |
| SA357757 | 382_6Q_L5_2_RT | 6PPD-quinone | Rainbow Trout | |
| SA357758 | 379_6Q_L1_2_RT | 6PPD-quinone | Rainbow Trout | |
| SA357759 | 363_6Q_L3_1_RT | 6PPD-quinone | Rainbow Trout | |
| SA357760 | 380_6Q_L1_3_RT | 6PPD-quinone | Rainbow Trout | |
| SA357761 | 493_AQ_L5_2_CH | Anthraquinone | Chinook | |
| SA357762 | 485_AQ_L4_1_CH | Anthraquinone | Chinook | |
| SA357763 | 455_AQ_L1_2_CH | Anthraquinone | Chinook | |
| SA357764 | 351_AQ_L1_3_CH | Anthraquinone | Chinook | |
| SA357765 | 289_AQ_L2_2_CH | Anthraquinone | Chinook | |
| SA357766 | 459_AQ_L3_1_CH | Anthraquinone | Chinook | |
| SA357767 | 391_AQ_L4_2_CH | Anthraquinone | Chinook | |
| SA357768 | 406_AQ_L4_3_CH | Anthraquinone | Chinook | |
| SA357769 | 489_AQ_L3_3_CH | Anthraquinone | Chinook | |
| SA357770 | 392_AQ_L1_1_CH | Anthraquinone | Chinook | |
| SA357771 | 528_AQ_L2_1_CH | Anthraquinone | Chinook | |
| SA357772 | 291_AQ_L5_3_CH | Anthraquinone | Chinook | |
| SA357773 | 316_AQ_L5_1_CH | Anthraquinone | Chinook | |
| SA357774 | 492_AQ_L3_2_CH | Anthraquinone | Chinook | |
| SA357775 | 365_AQ_L2_3_CH | Anthraquinone | Chinook | |
| SA357776 | 339_AQ_L1_1_CO | Anthraquinone | Coho | |
| SA357777 | 412_AQ_L3_3_CO | Anthraquinone | Coho | |
| SA357778 | 337_AQ_L3_2_CO | Anthraquinone | Coho | |
| SA357779 | 278_AQ_L1_2_CO | Anthraquinone | Coho | |
| SA357780 | 440_AQ_L3_1_CO | Anthraquinone | Coho | |
| SA357781 | 299_AQ_L1_3_CO | Anthraquinone | Coho | |
| SA357782 | 296_AQ_L2_3_CO | Anthraquinone | Coho | |
| SA357783 | 386_AQ_L4_1_CO | Anthraquinone | Coho | |
| SA357784 | 430_AQ_L2_2_CO | Anthraquinone | Coho | |
| SA357785 | 302_AQ_L5_3_CO | Anthraquinone | Coho | |
| SA357786 | 484_AQ_L2_1_CO | Anthraquinone | Coho | |
| SA357787 | 425_AQ_L5_1_CO | Anthraquinone | Coho | |
| SA357788 | 297_AQ_L5_2_CO | Anthraquinone | Coho | |
| SA357789 | 356_AQ_L4_2_CO | Anthraquinone | Coho | |
| SA357790 | 324_AQ_L4_3_CO | Anthraquinone | Coho | |
| SA357791 | 322_AQ_L1_1_RT | Anthraquinone | Rainbow Trout | |
| SA357792 | 427_AQ_L3_2_RT | Anthraquinone | Rainbow Trout | |
| SA357793 | 330_AQ_L1_3_RT | Anthraquinone | Rainbow Trout | |
| SA357794 | 381_AQ_L2_3_RT | Anthraquinone | Rainbow Trout | |
| SA357795 | 292_AQ_L5_1_RT | Anthraquinone | Rainbow Trout | |
| SA357796 | 490_AQ_L1_2_RT | Anthraquinone | Rainbow Trout | |
| SA357797 | 287_AQ_L2_2_RT | Anthraquinone | Rainbow Trout | |
| SA357798 | 471_AQ_L5_2_RT | Anthraquinone | Rainbow Trout | |
| SA357799 | 535_AQ_L5_3_RT | Anthraquinone | Rainbow Trout | |
| SA357800 | 374_AQ_L3_1_RT | Anthraquinone | Rainbow Trout | |
| SA357801 | 503_AQ_L2_1_RT | Anthraquinone | Rainbow Trout | |
| SA357802 | 309_AQ_L3_3_RT | Anthraquinone | Rainbow Trout | |
| SA357803 | 304_AQ_L4_1_RT | Anthraquinone | Rainbow Trout | |
| SA357804 | 408_AQ_L4_2_RT | Anthraquinone | Rainbow Trout | |
| SA357805 | 293_AQ_L4_3_RT | Anthraquinone | Rainbow Trout | |
| SA357806 | 271_CE_L4_2_CH | Coexposure | Chinook | |
| SA357807 | 451_CE_L2_2_CH | Coexposure | Chinook | |
| SA357808 | 417_CE_L2_3_CH | Coexposure | Chinook | |
| SA357809 | 295_CE_L1_1_CH | Coexposure | Chinook | |
| SA357810 | 404_CE_L1_3_CH | Coexposure | Chinook | |
| SA357811 | 522_CE_L4_3_CH | Coexposure | Chinook | |
| SA357812 | 424_CE_L4_1_CH | Coexposure | Chinook | |
| SA357813 | 352_CE_L5_3_CH | Coexposure | Chinook | |
| SA357814 | 273_CE_L1_2_CH | Coexposure | Chinook | |
| SA357815 | 362_CE_L5_1_CH | Coexposure | Chinook | |
| SA357816 | 470_CE_L5_2_CH | Coexposure | Chinook |
Collection:
| Collection ID: | CO003410 |
| Collection Summary: | Fish were sacrificed with MS222 and livers and brains were dissected, weighed, and flash frozen in aluminum foil packets using liquid nitrogen and stored at -80 |
| Sample Type: | Brain, Liver |
| Storage Conditions: | -80℃ |
Treatment:
| Treatment ID: | TR003426 |
| Treatment Summary: | Experimental exposures were conducted using a 2/3 static renewal system every 24-hours for a duration of 120-hours. Phase II experimental design included a 120-hour fasted control tank, a 120-hour fed control tank, and four chemical treatment groups: a 120-hour 1 µg/L 6PPD-q exposure tank, a 120-hour 10 µg/L AQ exposure tank, a 120-hour both 1 µg/L 6PPD-q and 10 µg/L AQ co-exposure tank, and a 120-hour 10 µg/L AQ exposure tank combined with the 24-hour exposure of 1 µg/L 6PPD-q. Each tank included five fish replicates and each condition was repeated to collect three biological replicates (n = 3) |
| Treatment Compound: | 6PPD-quinone, Anthraquinone |
Sample Preparation:
| Sampleprep ID: | SP003424 |
| Sampleprep Summary: | Liver and brain tissues were allocated into 10 mg samples using a razor and dry ice. Samples were aliquoted in Eppendorf vials with 40 µL of 1.4 mm ceramic beads. Chilled methanol:water, 80:20, was added to the vials (300 µL). Samples were spiked with 3 µL of isotope labeled metabolite Mix 2 QReSS Kit (Cambridge Isotope Labs) to account for extraction variability among tissue samples. Samples were extracted in a Precellys homogenizer (3x15s; 5,500 rpm). Homogenized tissue (200 µL) was transferred to a clean Eppendorf vial with a corresponding randomly assigned ID number. Samples were centrifuged at 10,000g for 3 min at 4 °C. Samples were stored overnight at – 24 °C to precipitated proteins. Samples were centrifuged again at 13,000g for 15 min at 4 °C. Supernatant (150 µL) was recovered in a new Eppendorf tube and stored at 4 °C before LCMS analysis. Samples were spiked with 3 µL of isotope labeled metabolite Mix 1 QReSS Kit (Cambridge Isotope Labs) to account for instrumental variation between runs. |
Chromatography:
| Chromatography ID: | CH004093 |
| Instrument Name: | Sciex ExionLC AD |
| Column Name: | GL Sciences Intersil Ph-3 (2.1 x 150 mm, 2um) |
| Column Temperature: | 40 |
| Flow Gradient: | In %B, at minute 0, 5% B, and held at 5% B until minute 3. From 3-12 minutes a gradient up to 98% B and held at 98% until 17 minutes. From 17 to 17.5 drop to 5% B and held at 5% until 23 minutes. |
| Flow Rate: | 0.3 mL/min |
| Injection Temperature: | 15 |
| Internal Standard: | QReSS Kit |
| Sample Injection: | 2 uL |
| Solvent A: | 100% water; 0.1% formic acid |
| Solvent B: | 100% acetonitrile; 0.1% formic acid |
| Chromatography Type: | Reversed phase |
Analysis:
| Analysis ID: | AN005399 |
| Analysis Type: | MS |
| Chromatography ID: | CH004093 |
| Has Mz: | 1 |
| Has Rt: | 1 |
| Rt Units: | Minutes |
| Results File: | ST003296_AN005399_Results.txt |
| Units: | abundance |
| Analysis ID: | AN005400 |
| Analysis Type: | MS |
| Chromatography ID: | CH004093 |
| Has Mz: | 1 |
| Has Rt: | 1 |
| Rt Units: | Minutes |
| Results File: | ST003296_AN005400_Results.txt |
| Units: | abundance |