Figure Gallery

Expression Pattern Search Results for runx1

(192 figures with expression from 101 publications)
Publication	Data	Fish	Condition	Stage Range	Anatomy
Mazzola et al., 2020	FIGURE 4	AB + MO2-rad21a	standard conditions	Long-pec	whole organism
	FIGURE 2	AB + MO3-nipblb	standard conditions	Prim-15	ventral wall of dorsal aorta
Ong et al., 2020	Figure 5	mfap4.2^imb5/imb5	standard conditions	Days 7-13	hematopoietic multipotent progenitor cell
Pak et al., 2020	Fig. 2	WT pax9^{zf3502/zf3502}	standard conditions	Prim-25	whole organism
Bonkhofer et al., 2019	Fig. 6	WT dll4^{sa9436/sa9436} WT + MO1-dll4 WT + MO4-dll4	standard conditions	Prim-15	ventral wall of dorsal aorta
	Fig. 1	ox1Tg	standard conditions	10-13 somites to Prim-15	posterior lateral plate mesoderm Rohon-Beard neuron spinal cord neuron ventral wall of dorsal aorta
	Fig. S9	WT + MO1-cldn5b	standard conditions	Prim-5	ventral wall of dorsal aorta
Ghersi et al., 2019	Fig. 4	AB AB + MO1-bif1.1	standard conditions control	Prim-5	dorsal aorta
Kobayashi et al., 2019	Fig. 1	WT	standard conditions	Prim-15	hematopoietic stem cell
	Fig. 4	jam3b^sa37/sa37	standard conditions	26+ somites	dorsal aorta hematopoietic stem cell
	Fig. 5	WT jam3b^sa37/sa37	control chemical treatment: 2-(2-amino-3-methoxyphenyl)chromen-4-one	Prim-5	dorsal aorta
	Fig. 6	WT jam3b^sa37/sa37 ko112Tg	standard conditions	Prim-5	dorsal aorta
	Fig. 3	WT WT + MO1-lrrc15 WT + MO3-drl,drll.1,drll.2	standard conditions	Prim-5	dorsal aorta hematopoietic stem cell
Liu et al., 2019	Fig. 3	AB fsd1^{ioz104/ioz104} ift88^tz288/tz288 + MO1-ift88 pkd2^{ouc2015/ouc2015} + MO3-pkd2 AB + MO1-fsd1 AB + MO1-ift88 AB + MO1-kif3a AB + MO3-pkd2	control	Prim-5 to Prim-25	ventral wall of dorsal aorta ventral wall of dorsal aorta hematopoietic multipotent progenitor cell whole organism
	Fig. 5	AB AB + MO1-fsd1 AB + MO1-ift88 AB + MO1-kif3a AB + MO3-pkd2	control	26+ somites to Prim-5	ventral wall of dorsal aorta ventral wall of dorsal aorta hematopoietic multipotent progenitor cell
	Fig. 4	AB	control chemical treatment by environment: ciliobrevin D	Prim-15	ventral wall of dorsal aorta ventral wall of dorsal aorta hematopoietic multipotent progenitor cell
Rho et al., 2019	Fig. 6	WT itgb1b^mi371/mi371 WT + MO1-itgb1b ncv2Tg + MO1-fn1a + MO1-fn1b kca3Tg; kca4Tg + MO1-itgb1b	control heat shock	Prim-5	ventral wall of dorsal aorta
	Fig. 3	WT rap1b^{ncv124/ncv124} WT + MO4-rap1b ncv508Tg kca3Tg; kca4Tg + MO4-rap1b rap1b^{ncv124/ncv124}; ncv508Tg	control heat shock	Prim-5	ventral wall of dorsal aorta ventral wall of dorsal aorta angioblastic mesenchymal cell
	Fig. 2	WT rap1b^{ncv124/ncv124}	control	Prim-5	ventral wall of dorsal aorta ventral wall of dorsal aorta angioblastic mesenchymal cell
Xue et al., 2019	Fig. S6	TU + MO1-itgb2 TU + MO3-ccn2a	control	Prim-15 to Day 4	ventral wall of dorsal aorta
	Fig. S5	TU + MO3-smchd1	control	Prim-5	ventral wall of dorsal aorta hematopoietic multipotent progenitor cell
Yang et al., 2019	Fig. 3	WT cul4a^{zf3203/zf3203} cul4b^{zf3204/zf3204} WT + MO2-cul4a cul4a^{zf3203/zf3203}; cul4b^{zf3204/zf3204}	standard conditions control	Prim-25	hematopoietic cell
Berrun et al., 2018	Fig. 4	AB + MO3-ism1	standard conditions	Long-pec	whole organism
Bickers et al., 2018	Fig. 3	AB AB + MO1-snai2	standard conditions	Prim-5	ventral wall of dorsal aorta hematopoietic stem cell
	Fig. 5	AB AB + MO1-snai2	standard conditions	Prim-5	ventral wall of dorsal aorta hematopoietic stem cell