TY - JOUR
T1 - Removing Critical Gaps in Chemical Test Methods by Developing New Assays for the Identification of Thyroid Hormone System-Disrupting Chemicals-The ATHENA Project
AU - Kortenkamp, Andreas
AU - Axelstad Petersen, Marta
AU - Baig, Asma H
AU - Bergman, Åke
AU - Bornehag, Carl-Gustaf
AU - Cenijn, Peter
AU - Christiansen, Sofie
AU - Demeneix, Barbara
AU - Derakhshan, Arash
AU - Fini, Jean-Baptiste
AU - Frädrich, Caroline
AU - Hamers, Timo
AU - Hellwig, Lina
AU - Köhrle, Josef
AU - Korevaar, Tim I M
AU - Lindberg, Johan
AU - Martin, Olwenn
AU - Meima, Marcel E
AU - Mergenthaler, Philipp
AU - Georgiev Nikolov, Nikolai
AU - Du Pasquier, David
AU - Peeters, Robin P
AU - Platzack, Bjorn
AU - Ramhøj, Louise
AU - Remaud, Sylvie
AU - Renko, Kostja
AU - Scholze, Martin
AU - Stachelscheid, Harald
AU - Svingen, Terje
AU - Wagenaars, Fabian
AU - Wedebye, Eva Bay
AU - Zoeller, R Thomas
PY - 2020
Y1 - 2020
N2 - The test methods that currently exist for the identification of thyroid hormone system-disrupting chemicals are woefully inadequate. There are currently no internationally validated in vitro assays, and test methods that can capture the consequences of diminished or enhanced thyroid hormone action on the developing brain are missing entirely. These gaps put the public at risk and risk assessors in a difficult position. Decisions about the status of chemicals as thyroid hormone system disruptors currently are based on inadequate toxicity data. The ATHENA project (Assays for the identification of Thyroid Hormone axis-disrupting chemicals: Elaborating Novel Assessment strategies) has been conceived to address these gaps. The project will develop new test methods for the disruption of thyroid hormone transport across biological barriers such as the blood-brain and blood-placenta barriers. It will also devise methods for the disruption of the downstream effects on the brain. ATHENA will deliver a testing strategy based on those elements of the thyroid hormone system that, when disrupted, could have the greatest impact on diminished or enhanced thyroid hormone action and therefore should be targeted through effective testing. To further enhance the impact of the ATHENA test method developments, the project will develop concepts for better international collaboration and development in the area of thyroid hormone system disruptor identification and regulation.
AB - The test methods that currently exist for the identification of thyroid hormone system-disrupting chemicals are woefully inadequate. There are currently no internationally validated in vitro assays, and test methods that can capture the consequences of diminished or enhanced thyroid hormone action on the developing brain are missing entirely. These gaps put the public at risk and risk assessors in a difficult position. Decisions about the status of chemicals as thyroid hormone system disruptors currently are based on inadequate toxicity data. The ATHENA project (Assays for the identification of Thyroid Hormone axis-disrupting chemicals: Elaborating Novel Assessment strategies) has been conceived to address these gaps. The project will develop new test methods for the disruption of thyroid hormone transport across biological barriers such as the blood-brain and blood-placenta barriers. It will also devise methods for the disruption of the downstream effects on the brain. ATHENA will deliver a testing strategy based on those elements of the thyroid hormone system that, when disrupted, could have the greatest impact on diminished or enhanced thyroid hormone action and therefore should be targeted through effective testing. To further enhance the impact of the ATHENA test method developments, the project will develop concepts for better international collaboration and development in the area of thyroid hormone system disruptor identification and regulation.
U2 - 10.3390/ijms21093123
DO - 10.3390/ijms21093123
M3 - Journal article
C2 - 32354186
SN - 1661-6596
VL - 21
JO - International Journal of Molecular Sciences
JF - International Journal of Molecular Sciences
IS - 9
M1 - 3123
ER -