CANDLES, an assay for monitoring GPCR induced cAMP generation in cell cultures

G protein-coupled receptors (GPCRs) represent a physiologically and pharmacologically important family of receptors that upon coupling to GαS stimulate cAMP production catalyzed by adenylyl cyclase. Thus, developing assays to monitor cAMP production is crucial to screen for ligands in studies of GPC...

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Veröffentlicht in:Cell communication and signaling 2014-11, Vol.12 (1), p.70-70, Article 70
Hauptverfasser: Trehan, Ashutosh, Rotgers, Emmi, Coffey, Eleanor T, Huhtaniemi, Ilpo, Rivero-Müller, Adolfo
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container_start_page 70
container_title Cell communication and signaling
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creator Trehan, Ashutosh
Rotgers, Emmi
Coffey, Eleanor T
Huhtaniemi, Ilpo
Rivero-Müller, Adolfo
description G protein-coupled receptors (GPCRs) represent a physiologically and pharmacologically important family of receptors that upon coupling to GαS stimulate cAMP production catalyzed by adenylyl cyclase. Thus, developing assays to monitor cAMP production is crucial to screen for ligands in studies of GPCR signaling. Primary cell cultures represent a more robust model than cell lines to study GPCR signaling since they physiologically resemble the parent tissue. Current cAMP assays have two fundamental limitations: 1) absence of cAMP kinetics as competition-based assays require cell lysis and measure only a single time-point, and 2) high variation with separate samples needed to measure consecutive time points. The utility of real-time cAMP biosensors is also limited in primary cell cultures due to their poor transfection efficiency, variable expression levels and inability to select stable clones. We therefore, decided to develop an assay that can measure cAMP not only at a single time-point but the entire cAMP kinetics after GPCR activation in untransfected primary cells. CANDLES (Cyclic AMP iNdirect Detection by Light Emission from Sensor cells) assay for monitoring cAMP kinetics in cell cultures, particularly in primary cultures was developed. The assay requires co-culturing of primary cells with sensor cells that stably express a luminescent cAMP sensor. Upon GPCR activation in primary cells, cAMP is transferred to sensor cells via gap junction channels, thereby evoking a luminescent read-out. GPCR activation using primary cultures of rat cortical neurons and mouse granulosa cells was measured. Kinetic responses of different agonists to adrenergic receptors were also compared using rat cortical neurons. The assay optimization was done by varying sensor-test cell ratio, using phosphodiesterase inhibitors and testing cell-cell contact requirement. Here we present CANDLES assay based on co-culturing test cells with cAMP-detecting sensor cells. This co-culture setup allows kinetic measurements, eliminates primary cell transfections and reduces variability. A variety of cell types (rat cortical neurons, mouse granulosa cells and established cell lines) and receptors (adrenergic, follicle stimulating hormone and luteinizing hormone/chorionic gonadotropin receptors) were tested for use with CANDLES. The assay is best applied while comparing cAMP generation curves upon different drug treatments to untransfected primary cells.
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CANDLES (Cyclic AMP iNdirect Detection by Light Emission from Sensor cells) assay for monitoring cAMP kinetics in cell cultures, particularly in primary cultures was developed. The assay requires co-culturing of primary cells with sensor cells that stably express a luminescent cAMP sensor. Upon GPCR activation in primary cells, cAMP is transferred to sensor cells via gap junction channels, thereby evoking a luminescent read-out. GPCR activation using primary cultures of rat cortical neurons and mouse granulosa cells was measured. Kinetic responses of different agonists to adrenergic receptors were also compared using rat cortical neurons. The assay optimization was done by varying sensor-test cell ratio, using phosphodiesterase inhibitors and testing cell-cell contact requirement. Here we present CANDLES assay based on co-culturing test cells with cAMP-detecting sensor cells. 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subjects Analysis
Animals
Biological Assay
Cell Communication
Cell Line
Cells, Cultured
Cerebral Cortex - cytology
Coculture Techniques
Colleges & universities
Competition
Cyclic adenylic acid
Cyclic AMP - metabolism
Experiments
Female
Gap Junctions - metabolism
Glycoproteins
Granulosa Cells - metabolism
HEK293 Cells
Humans
Kinases
Ligands
Medical screening
Methodology
Methods
Mice, Inbred C57BL
Mutation
Neurons - metabolism
Physiological aspects
Proteins
Rats, Sprague-Dawley
Receptors, G-Protein-Coupled - metabolism
Sensors
title CANDLES, an assay for monitoring GPCR induced cAMP generation in cell cultures
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