A subset of chemicals with strong evidence for a DNT hazard in vivo (as
described in Aschner et al., 2017) was
selected. A literature search was performed to retrieve data on in vitro testing
of these compounds. Data for 11 assays have been compiled here. Grey fields
indicate that no clear test data have been retrieved. Green fields indicate that
the compound has been examined in the respective test method, and was found to
show a positive effect. Orange fields indicate that the compound has been
tested, but did not show any effect specific of DNT. In the latter two cases,
the literature evidence is indicated. Each assay allows testing of specific DNT
endpoints as indicated below: NEP differentiation: neural tube
formation. Neurospheres: NPC proliferation; radial glia migration;
neuron and glia differentiation; neurite outgrowth. ReNcell: NPC
proliferation. MINC: NCC migration. hESC/hiPS: neuron,
astrocyte and oligodendrocyte differentiation; neurite outgrowth. UKN4
(NeuriTox): DA neuron differentiation; neurite outgrowth. 3D
human: neuron, astrocyte and oligodendrocyte differentiation,;
synaptogenesis; myelination; neuronal network formation. 3D rat:
neuron, astrocyte and oligodendrocyte differentiation; synaptogenesis;
myelination; neuronal network formation; neuroinflammation. 2D
murine: neuron and glia differentiation; synaptogenesis; neuronal
network formation. UKN5 (PeriTox): neurogenesis. Zebra
fish: brain development. Literature as indicated by numbers in the
orange and green fields: 1. Zimmer et al.,
2014; 2. Dreser et al., 2015;
3. Pallocca et al., 2016; 4. Zhou et al., 2015; 5. Chattopadhyay et
al., 2002; 6. Breier et al., 2008; 7.
Culbreth et al., 2012; 8. Gulisano et al., 2009; 9. Monnet-Tschudi et al., 1993; 10. Tasneem et al., 2016; 11. Chow et al., 2008; 12. Selderslaghs et al., 2013; 13. Baumann et al., 2016; 14. Lee et al., 2014; 15. Krug et al., 2013b; 16. Monnet-Tschudi et al., 2000; 17. Slotkin et al., 2012; 18. Crumpton et al., 2000; 19. Visan et al., 2012; 20.
Dingemans et al., 2016; 21. Lee et
al., 2017; 22. McCarthy et al., 2011;
23. Shang et al., 2007; 24. Harrill et al., 2011; 25. Moors et al., 2012; 26. Ninomiya et al., 2014; 27. Bramanti et al., 2010; 28. Khor et al., 2013; 29. Perez-Gomez et al., 2012; 30. Hogberg et al., 2011; 31. Tiedeken et al., 2005; 32. Palmer et al., 2012; 33. Talens-Visconti et al., 2011; 34. Nash et al., 2012; 35. Guadagnoli et al., 2016; 36. Parker et al., 2014; 37. Benninghoff et al., 2013; 38. Bai et al., 2013; 39. Slikker et al., 2015; 40. Hondebrink et al., 2017; 41. Zimmer et al., 2012; 42. Senut et al., 2014; 43. Zurich et al., 2002; 44. Monnet-Tschudi et al., 1999; 45. Dou et al., 2011; 46. Chen et al., 2012; 47. Hoareau et
al., 2006; 48. Suarez-Isla et al.,
1984; 49. Kindlundh-Hogberg et al.,
2010; 50. Hondebrink et al.,
2016; 51. Santos-Fandila et al.,
2015; 52. Stummann et al.,
2009; 53. Schmuck et al., 2016; 54. Moors et al., 2009; 55. Wilson et
al., 2014; 56. Pallocca et al.,
2013; 57. Stiegler et al.,
2011; 58. Sandström et al., 2017; 59. Hoelting et al., 2013; 60. He et al., 2012; 61. Monnet-Tschudi et al., 1996; 62. Popova et al, 2014; 63. Yao et al.,
2017; 64. Coronas et al.,
2000; 65. Sandström von Tobel et
al., 2014; 66. Schreiber et al.,
2010; 67. Hirsch et al.,
2017; 68. Xiong et al., 2012; 69.
Tofighi et al., 2011; 70. Yang et al., 2014; 71. Markus et al., 2010; 72. Colleoni et al., 2011; 73. Orsolits et al., 2013; 74. Addae et al., 2012; 75. Colleoni et al., 2012; 76. Wang et al., 2015; 77. Zimmermann et al., 2015.