Results 51 to 60 of about 5,198 (201)

Dopamine Signaling in Dorsal Versus Ventral Striatum: The Dynamic Role of Cholinergic Interneurons [PDF]

, 2011
Mesostriatal dopaminergic neurons and striatal cholinergic interneurons participate in signaling the motivational signifcance of environmental stimuli and regulate striatal plasticity. Dopamine (DA) and acetylcholine (ACh) have potent interactions within
Sarah Threlfell, Stephanie Jane Cragg
core   +3 more sources

Spirocyclic Diamine Scaffolds for Medicinal Chemistry

Helvetica Chimica Acta, Volume 109, Issue 1, January 2026.
Here we enumerated 391 spirocyclic diamine drug scaffolds with ring sizes four to eight and found that most of them are unknown. We prepared four novel such spirocycles and discovered a micromolar inhibitor of the M4 muscarinic receptor. ABSTRACT Medicinal chemistry requires the exploration of structurally diverse compound families to expand the ...
Aline Carrel, Alejandro Flores, Maedeh Darsaraee, Jean‐Louis Reymond   +3 more
wiley   +1 more source

Expression and function of G-protein-coupled receptorsin the male reproductive tract [PDF]

, 2009
This review focuses on the expression and function of muscarinic acetylcholine receptors (mAChRs), α1-adrenoceptors and relaxin receptors in the male reproductive tract.
ABOUD R, ALONSO-LLAMAZARES A, ANAND-IVELL RJ, ANDERSON MB, BAN Y, BATHGATE RA, BATHGATE RA, BERNARD V, BERNARD V, BHATHAL PS, BIRDSALL NJ, BISHOP MJ, BLANCO M, BOGIC L, BORGES MOR, BRADDON SA, BRODDE OE, BURAZIN TC, BURT RP, BURT RP, CAMPOS M, Catarina S. Porto, CAULFIELD MP, CHALOTHORN D, CHAN HC, CHANG DJ, CHATURAPANICH G, CHEAH SH, CHEN S, CHEN S, COGÉ F ET AL, DA SILVA MC, DALY CJ, DANIELS DV, DAVENPORT CW, DEBRUYNE FM, DENG XF, DIVIANI D, DOCHERTY JR, DOCHERTY JR, DOGGRELL SA, DU JY, EGLEN RM, EGLEN RM, EHRÉN I, EISENHOFER G, ERRASTI AE, ESBENSHADE TA, ESSIG M, FENG S, FEVOLD HL, FILONZI M, FORD APDW, FORD APDW, FORRAY C, FUKASAWA R, GAO B, GAO B, GOBEIL F JR, GONZÁLEZ-ESPINOSA C, GRAHAM RM, GRIMM U, GUNNERSEN JM, GUNNERSEN JM, HAAG C, HAGUE C, HAGUE C, HALLS ML, HALLS ML, HALLS ML, HAMAMURA M, HANFT G, HANSELL DJ, HAUSER F, HAWRYLYSHYN KA, HEIN P, HIB J, HIB J, HIEBLE JP, HIEBLE JP, HIRASAWA A, HIRASAWA A, HIRASAWA A, HISAW FL, HOMMA Y, HORIE K, HROMETZ SL, HSU SY, HSU SY, HU K, HULEIHEL M, HULME EC, HWA J, HWA J, HWA J, II M, IRAM S, IVELL R, IVELL R, JACKSON VM, JEYABALAN A, JEYABALAN A, JIANG X, JOCKENHOVEL F, JUDSON DG, JURKIEWICZ NH, KAMAT AA, KARKANIAS GB, KERN A, KIM JK, KINGHORN EM, KOHSAKA T, KONDO S, KRAJNC-FRANKEN MA, KUBO T, KUDO M, LACEY JP, LANGER S, LANZAFAME AA, LAU WA, LAZ TM, LEEB-LUNDBERG LM, LEFKOWITZ RJ, LEFKOWITZ RJ, LEFKOWITZ RJ, LENHART JA, LEPOR H, LEUNG AYH, LIU C, LOCKWOOD DH, LONGHURST PA, LOPEZ-GIMENEZ JF, LUCAS TFG, LUCAS TFG, LUTHIN GR, MACDONALD A, MACKENZIE JF, MACKINNON AC, MALLARD NJ, MANNI L, MANNI L, Maria Christina W. Avellar, Maria Fatima M. Lázari, MARKUS RP, MARÓSTICA E, MARÓSTICA E, MCCUNE DF, MCCUNE SK, MENDES FR, MICHELOTTI GA, MICHELOTTI GA, MIRANDA HF, MIRANDA HF, MIRANDA HF, MOOKERJEE I, MORIYAMA N, MORROW AL, MURAMATSU I, MURRAY KT, NADELHAFT I, NAKAOKA H, NASU K, NASU K, NEWINGER J, NISHIS, NOTHACKER HP, OBARA K, PAPATSORIS AG, PATRÃO MT, PEDRETTI A, PEREZ DM, PETITTI N, PIASCIK MT, PIASCIK MT, PIASCIK MT, PONTARI MA, PORTER JE, PRENZEL N, PRICE DT, PRICE DT, PRICE RR, PUPO AS, PUPO AS, QUEIRÓZ DB, QUEIRÓZ DBC, QUESADA A, RAMARAO CS, RAMSAY D, RATNASOORIYA WD, RATNASOORIYA WD, RAYFORD W, RICKER DD, ROEHRBORN CG, ROKOSH DG, ROKOSH DG, RUDNER XL, RUFFOLO RR JR, RUGGIERI MR, SALAMANCA AE, SALLÉS J, SAMUEL CS, SAMUEL CS, SAMUEL CS, SANBE A, SANBORN BM, SAROSI P, SATO T, SAUSSY DL JR, SAWUTZ DG, SCARPARO AC, SCHWINN DA, SCHWINN DA, SCOFIELD MA, SCOTT DJ, SCOTT DJ, SHANNON HE, SHAPIRO E, SHEN H, SHERWOOD OD, SHIMA S, SHINOURA H, SILVA MA, SIU ER, SKINNER MK, SOKOL RZ, STEINETZ BG, SUDO S, SUGAWARA T, SUZUKI F, TAYEBATI SK, TENG CM, TENSEN CP, TESTA R, THEBAULT S, THEROUX TL, TOEWS ML, UBERTI MA, UBERTI MA, VAN DIJK MM, VAN KOPPEN CJ, VARMA DR, VENTURA S, VICENTIC A, VIVAS NM, VÁZQUEZ-PRADO J, WALDEN PD, WALKER WH, WANG JM, WANG X ET AL, WAUGH DJ, WESS J, WIER WG, XIAO L, XU Z, YAN HH, YANG M, YANG-FENG TL, YANG-FENG TL, YASUOKA A, YAZAWA H, YAZAWA H, YKI-JARVINEN H, YOSHINAGA T, ZHAO L, ZHONG H, ZHONG H, ZIMMERMANN S, ZUSCIK MJ   +267 more
core   +3 more sources

ATP and Odor Mixture Activate TRPM5-Expressing Microvillous Cells and Potentially Induce Acetylcholine Release to Enhance Supporting Cell Endocytosis in Mouse Main Olfactory Epithelium

Frontiers in Cellular Neuroscience, 2018
The main olfactory epithelium (MOE) functions to detect odor molecules, provide an epithelial surface barrier, and remove xenobiotics from inhaled air.
Ziying Fu, Tatsuya Ogura, Wangmei Luo, Weihong Lin   +3 more
doaj   +1 more source

Nuclear calcium signaling evoked by cholinergic stimulation in hippocampal CA1 pyramidal neurons [PDF]

, 2002
The cholinergic system is thought to play an important role in hippocampal-dependent learning and memory. However, the mechanism of action of the cholinergic system in these actions in not well understood.
Power, JM, Sah, P
core   +2 more sources

Muscarinic cannabinoid suppression of excitation, a novel form of coincidence detection

Pharmacological Research
Δ9-tetrahydrocannabinol (THC), the chief psychoactive ingredient of cannabis, acts in the brain primarily via cannabinoid CB1 receptors. These receptors are implicated in several forms of synaptic plasticity – depolarization-induced suppression of ...
Michaela Dvorakova, Ken Mackie, Alex Straiker   +2 more
doaj   +1 more source

Gene expression of muscarinic, tachykinin and purinergic receptors in porcine bladder: comparison with cultured cells

Frontiers in Pharmacology, 2013
Urothelial cells, myofibroblasts, and smooth muscle cells are important cell types contributing to bladder function. Multiple receptors including muscarinic (M3/M5), tachykinin (NK1/NK2) and purinergic (P2X1/P2Y6) receptors are involved in bladder motor ...
Forough eBahadory, Kate Hilda Moore, Lu eLiu, Elizabeth eBurcher   +3 more
doaj   +1 more source

Accumbal Cholinergic Interneurons Differentially Influence Motivation Related to Satiety Signaling [PDF]

, 2017
Satiety, rather than all or none, can instead be viewed as a cumulative decrease in the drive to eat that develops over the course of a meal. The nucleus accumbens (NAc) is known to play a critical role in this type of value reappraisal, but the ...
Aitta-aho, Teemu Heikki Juhani, Apergis-Schoute, John, Bussey, Tim J., Harnischfeger, Fiona, Hay, Y. Adrey, Heath, Christopher, Pappa, Elpiniki, Phillips, Benjamin U., Saksida, Lisa M.   +8 more
core   +2 more sources

Cholinergic regulation of mood: from basic and clinical studies to emerging therapeutics. [PDF]

, 2019
Mood disorders are highly prevalent and are the leading cause of disability worldwide. The neurobiological mechanisms underlying depression remain poorly understood, although theories regarding dysfunction within various neurotransmitter systems have ...
Dulawa, Stephanie C, Janowsky, David S
core  

Modulation of c-Jun NH2-Terminal (JNK) by Cholinergic Autoantibodies from Patients with Sjögren’s Syndrome [PDF]

, 2011
Background: We wanted to determine (via an immunopharmacological approach) whether the c-Jun NH2 terminal kinase (JNK) cascade is phosphorylated in the submandibular gland by carbachol and cholinergic autoantibodies (IgG) present in the sera of patients ...
Borda, Enri Santiago, Passafaro, Daniela, Reina, Silvia, Sterin Borda, Leonor   +3 more
core   +1 more source