solo para uso en investigación
Cat. No.: S7963
Estructura química
| Dianas relacionadas | PI3K mTOR GSK-3 ATM/ATR DNA-PK AMPK PDPK1 PTEN PP2A PDK |
|---|---|
| Otros Akt Inhibidores | SC79 AZD5363 (Capivasertib) MK-2206 Dihydrochloride Ipatasertib (GDC-0068) Perifosine GSK690693 Triciribine (API-2) Afuresertib (GSK2110183) CCT128930 A-674563 HCl |
| Peso molecular | 386.49 | Fórmula | C24H26N4O |
Almacenamiento (Desde la fecha de recepción) | |
|---|---|---|---|---|---|
| Nº CAS | 1616632-77-9 | Descargar SDF | Almacenamiento de soluciones madre |
|
|
| Sinónimos | Dordaviprone | Smiles | CC1=CC=CC=C1CN2C(=O)C3=C(CCN(C3)CC4=CC=CC=C4)N5C2=NCC5 | ||
|
In vitro |
DMSO
: 77 mg/mL
(199.22 mM)
Ethanol : 77 mg/mL Water : Insoluble |
|
In vivo |
|||||
Paso 1: Introduzca la información a continuación (Recomendado: Un animal adicional para tener en cuenta la pérdida durante el experimento)
Paso 2: Introduzca la formulación in vivo (Esto es solo la calculadora, no la formulación. Por favor, contáctenos primero si no hay una formulación in vivo en la sección de Solubilidad.)
Resultados del cálculo:
Concentración de trabajo: mg/ml;
Método para preparar el líquido maestro de DMSO: mg fármaco predissuelto en μL DMSO ( Concentración del líquido maestro mg/mL, Por favor, contáctenos primero si la concentración excede la solubilidad del DMSO del lote del fármaco. )
Método para preparar la formulación in vivo: Tomar μL DMSO líquido maestro, luego añadirμL PEG300, mezclar y clarificar, luego añadirμL Tween 80, mezclar y clarificar, luego añadir μL ddH2O, mezclar y clarificar.
Método para preparar la formulación in vivo: Tomar μL DMSO líquido maestro, luego añadir μL Aceite de maíz, mezclar y clarificar.
Nota: 1. Por favor, asegúrese de que el líquido esté claro antes de añadir el siguiente disolvente.
2. Asegúrese de añadir el (los) disolvente(s) en orden. Debe asegurarse de que la solución obtenida, en la adición anterior, sea una solución clara antes de proceder a añadir el siguiente disolvente. Se pueden utilizar métodos físicos como el vórtice, el ultrasonido o el baño de agua caliente para ayudar a la disolución.
| Targets/IC50/Ki |
Akt
ERK
|
|---|---|
| In vitro |
In a p53-independent manner, TIC10 (ONC201) causes a dose-dependent increase in TRAIL mRNA and induces TRAIL protein localization on the cell surface of several cancer cell lines. It has broad-spectrum activity against multiple malignancies in vitro and induces an increase in sub-G1 DNA content suggestive of cell death in TRAIL-sensitive HCT116 p53−/− cells, but does not alter the cell cycle profiles of normal fibroblasts at equivalent doses. This compound decreases the clonogenic survival of cancer cell lines and spares normal fibroblasts. It increases the percentage of sub-G1 DNA in cancer cells in a p53-independent and Bax-dependent manner, as previously reported for TRAIL-mediated apoptosis. TIC10-induced TRAIL up-regulation is Foxo3a-dependent, which also up-regulates TRAIL death receptor DR5 among other targets, potentially allowing for sensitization of some TRAIL-resistant tumor cells. The agent inactivates kinases Akt and extracellular signal–regulated kinase (ERK), leading to the translocation of Foxo3a into the nucleus, where it binds to the TRAIL promoter to up-regulate gene transcription. It is an efficacious antitumor therapeutic agent that acts on tumor cells and their microenvironment to enhance the concentrations of the endogenous tumor suppressor TRAIL. |
| In vivo |
In the HCT116 p53−/− xenograft, treatment with TIC10 (ONC201) and TRAIL causes tumor regression to a comparable extent when both are administered as multiple doses. It also induces regression of MDA-MB-231 human triple-negative breast cancer xenografts, whereas TRAIL-treated tumors progressed. In DLD-1 colon cancer xenografts, this compound induces tumor stasis at 1 week after treatment, whereas TRAIL-treated tumors progress after a single dose. A single dose of it also induces a sustained regression of the SW480 xenograft and is equally effective when delivered by intraperitoneal or oral route, suggesting favorable oral bioavailability. It causes tumor-specific cell death by TRAIL-mediated direct and bystander effects and is an effective antitumor agent against orthotopic human glioblastoma multiforme tumors. |
Referencias |
|
| Métodos | Biomarcadores | Imágenes | PMID |
|---|---|---|---|
| Western blot | Cleaved PARP / CC3 ATF4 / ATF3 p-GCN2 / GCN2 / p-eIF2a / eIF2a p-p70S6K / p-S6 / p-4EBP1 / 4EBP1 / p-HSF1 / HSF1 |
|
29588331 |
| Growth inhibition assay | Cell viability |
|
29588330 |
(datos de https://clinicaltrials.gov, actualizado el 2024-05-22)
| Número NCT | Reclutamiento | Condiciones | Patrocinador/Colaboradores | Fecha de inicio | Fases |
|---|---|---|---|---|---|
| NCT04629209 | Withdrawn | Glioblastoma |
Masonic Cancer Center University of Minnesota|University of Minnesota |
June 28 2024 | Phase 2 |
| NCT06012929 | Not yet recruiting | Meningioma|Refractory Meningioma|Relapsed Meningioma |
University of Nebraska|Chimerix |
April 2024 | Phase 1 |
| NCT05476939 | Recruiting | Diffuse Intrinsic Pontine Glioma|Diffuse Midline Glioma H3 K27M-Mutant |
Gustave Roussy Cancer Campus Grand Paris|Chimerix|Innovative Therapies For Children with Cancer Consortium |
September 29 2022 | Phase 3 |