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Réf. Catalogue: S2790
Structure chimique
| Cibles apparentées | CXCR Hedgehog/Smoothened PKA Adrenergic Receptor AChR 5-HT Receptor Histamine Receptor Dopamine Receptor Ras KRas |
|---|---|
| Autre Adenosine Receptor Inhibiteurs | Reversine CGS 21680 HCl ZM241385 SCH58261 Ciforadenant (CPI-444) A2AR antagonist 1 Imaradenant (AZD4635) Etrumadenant (AB928) SCH-442416 DPCPX |
| Poids moléculaire | 384.43 | Formule | C20H24N4O4 |
Stockage (À compter de la date de réception) | |
|---|---|---|---|---|---|
| N° CAS | 155270-99-8 | Télécharger le SDF | Stockage des solutions mères |
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| Synonymes | KW-6002 | Smiles | CCN1C2=C(C(=O)N(C1=O)CC)N(C(=N2)C=CC3=CC(=C(C=C3)OC)OC)C | ||
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In vitro |
DMSO
: 6 mg/mL
(15.6 mM)
Water : Insoluble Ethanol : Insoluble |
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In vivo |
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Étape 1 : Saisir les informations ci-dessous (Recommandé : Un animal supplémentaire pour tenir compte des pertes pendant l'expérience)
Étape 2 : Saisir la formulation in vivo (Ceci est seulement le calculateur, pas la formulation. Veuillez nous contacter d'abord s'il n'y a pas de formulation in vivo dans la section Solubilité.)
Résultats du calcul :
Concentration de travail : mg/ml;
Méthode de préparation du liquide maître DMSO : mg médicament prédissous dans μL DMSO ( Concentration du liquide maître mg/mL, Veuillez nous contacter d'abord si la concentration dépasse la solubilité du DMSO du lot de médicament. )
Méthode de préparation de la formulation in vivo : Prendre μL DMSO liquide maître, puis ajouterμL PEG300, mélanger et clarifier, puis ajouterμL Tween 80, mélanger et clarifier, puis ajouter μL ddH2O, mélanger et clarifier.
Méthode de préparation de la formulation in vivo : Prendre μL DMSO liquide maître, puis ajouter μL Huile de maïs, mélanger et clarifier.
Note : 1. Veuillez vous assurer que le liquide est clair avant d'ajouter le solvant suivant.
2. Assurez-vous d'ajouter le(s) solvant(s) dans l'ordre. Vous devez vous assurer que la solution obtenue, lors de l'ajout précédent, est une solution claire avant de procéder à l'ajout du solvant suivant. Des méthodes physiques telles que le vortex, les ultrasons ou le bain-marie chaud peuvent être utilisées pour faciliter la dissolution.
| Targets/IC50/Ki |
Adenosine A2A receptor
2.2 nM(Ki)
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|---|---|
| In vitro |
The affinity of Istradefylline for the A2AR is 70-fold greater than that for the A1 receptor with Ki of 2.2 nM versus 150 nM. Exposure of primary rat striatal astrocytes to this compound results in concentration-dependent abolition of bFGF induction of astrogliosis in vitro. Binding affinities (Ki) of this chemical for A1 receptor, A2A receptor, and A3 receptor in human are >287 nM, 9.12 nM, and >681 nM, respectively, for A1 receptor and A2A receptor in rat 50.9 nM and 1.57 nM, respectively, and for A1 receptor and A2A receptor in mouse 105.02 nM and 1.87 nM, respectively. |
| In vivo |
Istradefylline reverses CGS21680-induced and reserpine-induced catalepsy with ED50 of 0.05 mg/kg and 0.26 mg/kg, respectively. This compound is over 10 times as potent in these models compared to other adenosine antagonists and dopamine agonist drugs. Administration of this chemical in combination with LevoDOPA (50 mg/kg) exerts prominent effects on haloperidol-induced and reserpine-induced catalepsy. Oral administration of this compound at 10 mg/kg to MPTP-treated common marmosets produces an increase in locomotor activity to approximately twice that of control and improves motor disability. Administration of this chemical (10 mg/kg, po, 90 minutes before SKF80723/quinpirole/LevoDOPA) in combination with SKF80723 (1 mg/kg, ip), quinpirole (0.06 mg/kg ip), or LevoDOPA (2.5 mg/kg po) produces a significant additive effect on locomotor activity and improvement of motor disability but not dyskinesia. In the MPTP mice model, this compound significantly attenuates striatal dopamine depletion under various conditions. Pretreatment with this chemical (3.3 mg/kg, i.p.) before a single dose of MPTP attenuates the partial dopamine and DOPAC depletions measured in striata 1 week later. Oral administration of this compound protects against the loss of nigral dopaminergic neuronal cells induced by 6-hydroxydopamine in rats, and prevents the functional loss of dopaminergic nerve terminals in the striatum and the ensuing gliosis caused by MPTP in mice. Chronic treatment with this compound does not improve the reversal deficits in dopamine-depleted rats. The tremulous jaw movements induced by pimozide are significantly reduced by co-administration of either this chemical or tropicamide. Pimozide-induced increases in ventrolateral striatal c-Fos expression are reduced by a behaviorally effective dose of this compound, in contrast to tropicamide by which c-Fos expression in pimozide-treated rats is actually increased. |
Références |
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(données du https://clinicaltrials.gov, mis à jour le 2024-05-22)
| Numéro NCT | Recrutement | Conditions | Promoteur/Collaborateurs | Date de début | Phases |
|---|---|---|---|---|---|
| NCT05885360 | Active not recruiting | Parkinson Disease|Tremor |
Georgetown University|Kyowa Kirin Inc. |
January 20 2023 | Phase 4 |
| NCT02610231 | Completed | Idiopathic Parkinson''s Disease |
Kyowa Kirin Co. Ltd.|Kyowa Hakko Kirin Pharma Inc. |
December 2015 | Phase 3 |
| NCT02256033 | Completed | Hepatic Impairment |
Kyowa Kirin Co. Ltd.|Kyowa Hakko Kirin Pharma Inc. |
August 2014 | Phase 1 |
| NCT00455507 | Completed | Parkinson''s Disease |
Kyowa Kirin Co. Ltd. |
March 2007 | Phase 2 |