In Vivo Pharmacological Comparison of TAK-071, a Positive Allosteric Modulator of Muscarinic M1 Receptor, and Xanomeline, an Agonist of Muscarinic M1/M4 Receptor, in Rodents. 2019

Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
Neuroscience Drug Discovery Unit, Research, Takeda Pharmaceutical Company Limited, 26-1, Muraoka-Higashi 2-chome, Fujisawa, Kanagawa 251-8555, Japan.

Activation of the M1 muscarinic acetylcholine receptor (M1R) may be an effective therapeutic approach for Alzheimer's disease (AD), dementia with Lewy bodies, and schizophrenia. Previously, the M1R/M4R agonist xanomeline was shown to improve cognitive function and exert antipsychotic effects in patients with AD and schizophrenia. However, its clinical development was discontinued because of its cholinomimetic side effects. We compared in vivo pharmacological profiles of a novel M1R-selective positive allosteric modulator, TAK-071, and xanomeline in rodents. Xanomeline suppressed both methamphetamine- and MK-801-induced hyperlocomotion in mice, whereas TAK-071 suppressed only MK-801-induced hyperlocomotion. In a previous study, we showed that TAK-071 improved scopolamine-induced cognitive deficits in a rat novel object recognition task (NORT) with 33-fold margins versus cholinergic side effects (diarrhea). Xanomeline also improved scopolamine-induced cognitive impairments in a NORT; however, it had no margin versus cholinergic side effects (e.g., diarrhea, salivation, and hypoactivity) in rats. These side effects were observed even in M1R knockout mice. Evaluation of c-Fos expression as a marker of neural activation revealed that xanomeline increased the number of c-Fos-positive cells in several cortical areas, the hippocampal formation, amygdala, and nucleus accumbens. Other than in the orbital cortex and claustrum, TAK-071 induced similar c-Fos expression patterns. When donepezil was co-administered to increase the levels of acetylcholine, the number of TAK-071-induced c-Fos-positive cells in these brain regions was increased. TAK-071, through induction of similar neural activation as that seen with xanomeline, may produce procognitive and antipsychotic effects with improved cholinergic side effects.

UI MeSH Term Description Entries
D009043 Motor Activity Body movements of a human or an animal as a behavioral phenomenon. Activities, Motor,Activity, Motor,Motor Activities
D011725 Pyridines Compounds with a six membered aromatic ring containing NITROGEN. The saturated version is PIPERIDINES.
D002540 Cerebral Cortex The thin layer of GRAY MATTER on the surface of the CEREBRAL HEMISPHERES that develops from the TELENCEPHALON and folds into gyri and sulci. It reaches its highest development in humans and is responsible for intellectual faculties and higher mental functions. Allocortex,Archipallium,Cortex Cerebri,Cortical Plate,Paleocortex,Periallocortex,Allocortices,Archipalliums,Cerebral Cortices,Cortex Cerebrus,Cortex, Cerebral,Cortical Plates,Paleocortices,Periallocortices,Plate, Cortical
D003071 Cognition Intellectual or mental process whereby an organism obtains knowledge. Cognitive Function,Cognitions,Cognitive Functions,Function, Cognitive,Functions, Cognitive
D006624 Hippocampus A curved elevation of GRAY MATTER extending the entire length of the floor of the TEMPORAL HORN of the LATERAL VENTRICLE (see also TEMPORAL LOBE). The hippocampus proper, subiculum, and DENTATE GYRUS constitute the hippocampal formation. Sometimes authors include the ENTORHINAL CORTEX in the hippocampal formation. Ammon Horn,Cornu Ammonis,Hippocampal Formation,Subiculum,Ammon's Horn,Hippocampus Proper,Ammons Horn,Formation, Hippocampal,Formations, Hippocampal,Hippocampal Formations,Hippocampus Propers,Horn, Ammon,Horn, Ammon's,Proper, Hippocampus,Propers, Hippocampus,Subiculums
D000494 Allosteric Regulation The modification of the reactivity of ENZYMES by the binding of effectors to sites (ALLOSTERIC SITES) on the enzymes other than the substrate BINDING SITES. Regulation, Allosteric,Allosteric Regulations,Regulations, Allosteric
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia
D012601 Scopolamine An alkaloid from SOLANACEAE, especially DATURA and SCOPOLIA. Scopolamine and its quaternary derivatives act as antimuscarinics like ATROPINE, but may have more central nervous system effects. Its many uses include an anesthetic premedication, the treatment of URINARY INCONTINENCE and MOTION SICKNESS, an antispasmodic, and a mydriatic and cycloplegic. Hyoscine,Scopolamine Hydrobromide,Boro-Scopol,Isopto Hyoscine,Kwells,Scoburen,Scopace,Scopoderm TTS,Scopolamine Cooper,Transderm Scop,Transderm-V,Travacalm HO,Vorigeno,Boro Scopol,Transderm V
D013830 Thiadiazoles Heterocyclic compounds composed of a five-membered heterocyclic ring which contains one sulfur and two nitrogen atoms. Thiadiazole
D016760 Proto-Oncogene Proteins c-fos Cellular DNA-binding proteins encoded by the c-fos genes (GENES, FOS). They are involved in growth-related transcriptional control. c-fos combines with c-jun (PROTO-ONCOGENE PROTEINS C-JUN) to form a c-fos/c-jun heterodimer (TRANSCRIPTION FACTOR AP-1) that binds to the TRE (TPA-responsive element) in promoters of certain genes. Fos B Protein,Fos-Related Antigen,Fos-Related Antigens,c-fos Protein,c-fos Proteins,fos Proto-Oncogene Protein,fos Proto-Oncogene Proteins,p55(c-fos),Antigens, Fos-Related,FRAs,Proto-Oncogene Products c-fos,Proto-Oncogene Proteins fos,p55 c-fos,Antigen, Fos-Related,Fos Related Antigen,Fos Related Antigens,Protein, c-fos,Protein, fos Proto-Oncogene,Proto Oncogene Products c fos,Proto Oncogene Proteins c fos,Proto Oncogene Proteins fos,Proto-Oncogene Protein, fos,c fos Protein,c fos Proteins,fos Proto Oncogene Protein,fos Proto Oncogene Proteins,p55 c fos

Related Publications

Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
February 2022, British journal of clinical pharmacology,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
January 2019, PloS one,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
April 2019, Neuropsychopharmacology : official publication of the American College of Neuropsychopharmacology,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
June 2003, Neuropsychopharmacology : official publication of the American College of Neuropsychopharmacology,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
January 2020, Psychopharmacology,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
November 2021, Neuroscience letters,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
April 2011, The Journal of neuroscience : the official journal of the Society for Neuroscience,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
February 2023, ACS chemical neuroscience,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
April 1994, The Journal of pharmacology and experimental therapeutics,
Takao Mandai, and Maki Kasahara, and Emi Kurimoto, and Maiko Tanaka, and Motohisa Suzuki, and Atsushi Nakatani, and Haruhide Kimura
June 2015, ACS chemical neuroscience,
Copied contents to your clipboard!