Katherine Peter

Dr. Katherine Peter

orcid

Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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8 January 2021 in Science
Verified
Journal Article
Closed access
PDF file
ZTZhenyu Tian
Zhenyu Tian
HZHaoqi Zhao
Haoqi Zhao
KPKatherine Peter
Katherine Peter
MGMelissa Gonzalez
Melissa Gonzalez
JWJill Wetzel
Jill Wetzel
EKEdward P. Kolodziej
Edward P. Kolodziej
Tire tread particles turn streams toxic: For coho salmon in the U.S. Pacific Northwest, returning to spawn in urban and suburban streams can be deadly. Regular acute mortality events are tied, in particular, to stormwater runoff, but the identity of the causative toxicant(s) has not been known. Starting from leachate from new and aged tire tread wear particles, Tian et al. followed toxic fractions through chromatography steps, eventually isolating a single molecule that could induce acute toxicity at threshold concentrations of ∼1 microgram per liter. The compound, called 6PPD-quinone, is an oxidation product of an additive intended to prevent damage to tire rubber from ozone. Measurements from road runoff and immediate receiving waters show concentrations of 6PPD-quinone high enough to account for the acute toxicity events. Science , this issue p. 185

7 September 2018 in Environmental Science & Technology
Verified
Journal Article
Closed access
KPKatherine Peter
Katherine Peter
ZTZhenyu Tian
Zhenyu Tian
CWChristopher Wu
Christopher Wu
PLPeter Lin
Peter Lin
SWSarah White
Sarah White
EKEdward P. Kolodziej
Edward P. Kolodziej

30 March 2023 in Environmental Science & Technology
Verified
Journal Article
Closed access
HZHaoqi Nina Zhao
Haoqi Nina Zhao
XHXimin Hu
Ximin Hu
ZTZhenyu Tian
Zhenyu Tian
MGMelissa Gonzalez
Melissa Gonzalez
CRCraig A. Rideout
Craig A. Rideout
EKEdward P. Kolodziej
Edward P. Kolodziej

30 December 2019 in Environmental Science & Technology
Verified
Journal Article
Closed access
ZTZhenyu Tian
Zhenyu Tian
KPKatherine Peter
Katherine Peter
AGAlex D. Gipe
Alex D. Gipe
HZHaoqi Zhao
Haoqi Zhao
FHFan Hou
Fan Hou
CJC. Andrew James
C. Andrew James

12 April 2022 in Environmental Science & Technology Letters
Verified
Journal Article
Closed access
XHXimin Hu
Ximin Hu
HZHaoqi Nina Zhao
Haoqi Nina Zhao
ZTZhenyu Tian
Zhenyu Tian
KPKatherine Peter
Katherine Peter
MDMichael C. Dodd
Michael C. Dodd
EKEdward P. Kolodziej
Edward P. Kolodziej

19 August 2021 in Environmental Science & Technology
Verified
Journal Article
Open access
JMJenifer K. McIntyre
Jenifer K. McIntyre
JPJasmine Prat
Jasmine Prat
JCJames Cameron
James Cameron
JWJillian Wetzel
Jillian Wetzel
EMEmma Mudrock
Emma Mudrock
NSNathaniel L. Scholz
Nathaniel L. Scholz
Tire tread wear particles (TWP) are increasingly recognized as a global pollutant of surface waters, but their impact on biota in receiving waters is rarely addressed. In the developed U.S. Pacific Northwest, acute mortality of adult coho salmon (Oncorhynchus kisutch) follows rain events and is correlated with roadway density. Roadway runoff experimentally triggers behavioral symptoms and associated changes in blood indicative of cardiorespiratory distress prior to death. Closely related chum salmon (O. keta) lack an equivalent response. Acute mortality of juvenile coho was recently experimentally linked to a transformation product of a tire-derived chemical. We evaluated whether TWP leachate is sufficient to trigger the acute mortality syndrome in adult coho salmon. We characterized the acute response of adult coho and chum salmon to TWP leachate (survival, behavior, blood physiology) and compared it with that caused by roadway runoff. TWP leachate was acutely lethal to coho at concentrations similar to roadway runoff, with the same behaviors and blood parameters impacted. As with runoff, chum salmon appeared insensitive to TWP leachate at concentrations lethal to coho. Our results confirm that environmentally relevant TWP exposures cause acute mortalities of a keystone aquatic species.