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FIN56
本产品不向个人销售,仅用作科学研究,不用于任何人体实验及非科研性质的动物实验。
FIN56图片
CAS NO:1083162-61-1
规格:≥98%
包装与价格:
包装价格(元)
5mg电议
10mg电议
25mg电议
50mg电议
100mg电议
250mg电议
500mg电议

产品介绍
FIN56 (FIN-56), a specific inducer of ferroptosis, causes the loss of GPX4 activity in cell lysates. Also binds to and activates squalene synthase. Ferroptosis has been found to occur when the lipid-repair enzyme GPX4 is inhibited. FIN56 promoted degradation of GPX4. FIN56 also bound to and activated squalene synthase, an enzyme involved in isoprenoid biosynthesis, independent of GPX4 degradation. FIN56 triggers ferroptosis through a mechanism involving the regulation of GPX4 protein abundance. FIN56-induced cell death is suppressed by GFP-GPX4 fusion protein overexpression. It binds to and activates squalene synthase, an enzyme involved in cholesterol synthesis, to suppress non-steroidogenic metabolites--most likely coenzyme Q10--in the mevalonate pathway, which enhances sensitivity to FIN56-induced ferroptosis.
理化性质和储存条件
Molecular Weight (MW) 517.66
Formula C25H31N3O5S2
CAS No. 1083162-61-1
Storage-20℃ for 3 years in powder form
-80℃ for 2 years in solvent
Solubility (In vitro)DMSO: 100 mg/mL (193.17 mM)
Water: <1 mg/mL
Ethanol: <1 mg/mL
SMILES O=S(C1=CC(/C2=N\O)=C(C3=C2C=C(S(=O)(NC4CCCCC4)=O)C=C3)C=C1)(NC5CCCCC5)=O
Synonyms FIN-56; FIN56; FIN 56
实验参考方法
In Vitro

In vitro activity: FIN56 causes the loss of GPX4 activity in cell lysates. FIN56-induced cell death is suppressed by GFP-GPX4 fusion protein overexpression. FIN56 triggers ferroptosis through a mechanism involving the regulation of GPX4 protein abundance.


Kinase Assay: FIN56 causes the loss of GPX4 activity in cell lysates. FIN56-induced cell death is suppressed by GFP-GPX4 fusion protein overexpression. FIN56 triggers ferroptosis through a mechanism involving the regulation of GPX4 protein abundance.


Cell Assay: 1000 cells/36 μL are seeded in each well in 384-well plates. Lethal compounds are dissolved and a 2-fold, 12-point dilution series are prepared in DMSO. Compound solutions are further diluted with media at 1:25 and 4 μL/well of the diluted solutions are added to cell cultures immediately after cells are seeded. When ferroptosis inhibitors (100 μM α-tocopherol, 152 μM deferoxamine, or 10 μM U-0126) are co-treated with lethal inducers, they are supplemented to cell culture at the same time as lethal compounds are added, and the cells are incubated for 24 hrs. When other cell death modulating compounds (100 nM sodium selenite, 1 μM cerivastatin, 100 μg/mL mevalonic acid) are co-treated, they are first supplemented to cell culture for 24 hrs before lethal compounds are added to cell culture and further incubated for 24 hrs at 37°C under 5% CO2. On the day of the viability measurement, 10 μL/well of 50% Alamar Blue diluted in media is added and further incubated at 37°C for 6 hrs. Fluorescence intensity (ex/em: 530/590) is measured with a Victor 3 plate reader and the normalized viability is calculated by VL = (IL-I0)/(IV-I0), where VL, I0, IV, and IL are the normalized viability, raw fluorescence intensities from the wells containing media, cells treated with a vehicle (negative control), and cells with the lethal compound (L), respectively. When the effect of a chemical modulator (M) on L is calculated, we instead used the equation: VL|M = (IM,L-I0)/(IM,V-I0), where VL|M, IM,L and IM,V are the normalized viability, and fluorescence intensity from cells treated with M and V, and from cells with M and L. respectively. The viability is typically measured in biological triplicates unless otherwise specified. A representative dose-response curve, the mean and standard error of normalized viability from one replicate are plotted.

In VivoNA
Animal modelNA
Formulation & DosageNA
References Nat Chem Biol. 2016 Jul;12(7):497-503.