90721-35-0Relevant articles and documents
Design and synthesis of brain penetrant selective JNK inhibitors with improved pharmacokinetic properties for the prevention of neurodegeneration
Bowers, Simeon,Truong, Anh P.,Jeffrey Neitz,Hom, Roy K.,Sealy, Jennifer M.,Probst, Gary D.,Quincy, David,Peterson, Brian,Chan, Wayman,Galemmo Jr., Robert A.,Konradi, Andrei W.,Sham, Hing L.,Tóth, Gergely,Pan, Hu,Lin, May,Yao, Nanhua,Artis, Dean R.,Zhang, Heather,Chen, Linda,Dryer, Mark,Samant, Bhushan,Zmolek, Wes,Wong, Karina,Lorentzen, Colin,Goldbach, Erich,Tonn, George,Quinn, Kevin P.,Sauer, John-Michael,Wright, Sarah,Powell, Kyle,Ruslim, Lany,Ren, Zhao,Bard, Frédérique,Yednock, Ted A.,Griswold-Prenner, Irene
, p. 5521 - 5527 (2011/10/09)
The SAR of a series of brain penetrant, trisubstituted thiophene based JNK inhibitors with improved pharmacokinetic properties is described. These compounds were designed based on information derived from metabolite identification studies which led to compounds such as 42 with lower clearance, greater brain exposure and longer half life compared to earlier analogs.
Synthesis and SAR exploration of dinapsoline analogues
Sit, Sing-Yuen,Xie, Kai,Jacutin-Porte, Swanee,Boy, Kenneth M.,Seanz, James,Taber, Matthew T.,Gulwadi, Amit G.,Korpinen, Carolyn D.,Burris, Kevin D.,Molski, Thaddeus F.,Ryan, Elaine,Xu, Cen,Verdoorn, Todd,Johnson, Graham,Nichols, David E.,Mailman, Richard B.
, p. 715 - 734 (2007/10/03)
Dinapsoline is a full D1 dopamine receptor agonist that produces robust rotational activity in the unilateral 6-OHDA rat model. This compound is orally active, and shows a low tendency to cause tolerance in rat models. The active enantiomer was determined to have the S-(+) configuration, and the opposite enantiomer is essentially devoid of biological activity. Taken together, dinapsoline has significant metabolic and pharmacological advantages over previous D1 agonists. In an attempt to define the structure-activity relationships (SARs) and to map out the key elements surrounding the unique structure of dinapsoline, core analogues and substitution analogues of the parent tetracyclic condensed ring structure were prepared. Based on a recently developed synthesis of dinapsoline and its enantiomers, both core and substitution analogues on all four rings (A, B′, C and D ring) of dinapsoline were synthesized. It was found that affinity for both D1and D2 receptors was decreased by most substituents on the A, B′, and C rings, whereas D ring substitutions preserved much of the dopamine receptor binding activity.