Shining a light on metabolic disorders

Boehringer Ingelheim, Circuit Therapeutics team up for optogenetics collaboration
| 2 min read
Register for free to listen to this article
Listen with Speechify
0:00
2:00
INGELHEIM, Germany & MENLO PARK, Calif.—Boehringer Ingelheim and Circuit Therapeutics, a biotechnology company specializing in optogenetics, have struck up their second collaboration. The collaboration will run three years as the companies apply Circuit's proprietary optogenetics technology platform to investigate metabolic disorders in the hopes of developing new medicines to treat obesity and associated diseases. Optogenetics technology enables the control of neural activity with light.
Continue reading below...
Reliable fluid biomarkers strategies for clinical neuroscience research
WebinarsReliable fluid biomarker strategies for clinical neuroscience research
Explore how validated fluid biomarker assays advance clinical research for neurological diseases.
Read More
Under this agreement, Circuit's optogenetics technology will be leveraged to identify targets in central nervous circuits that play a role in obesity, as well as central and peripheral circuits related to coordinating food intake. This focus will enable a better understanding of the biological mechanisms tied to obesity and aid in prioritizing targets with the potential for therapeutic intervention. No financial details for the deal were disclosed.
“Boehringer Ingelheim is excited about the potential of the optogenetics technology platform developed by Circuit and wants to carry on the success already achieved in the area of neurology into the area of metabolism,” Dr. Michel Pairet, senior corporate vice president of Research and Non-clinical Development at Boehringer Ingelheim, remarked in a press release. “This new technology may enable us to unravel the neurological circuits responsible for metabolic disorders down to individual neurons which could lead to the identification of new targets and subsequently new treatments in line with our corporate vision of improving patients’ lives.”
Continue reading below...
An illustration of interconnected neurons glowing with orange light, representing neural activity
WebinarsUnderstanding neuroinflammation in Parkinson's disease
Explore the role and cellular mechanisms of neuroinflammation in Parkinson’s disease.
Read More
Boehringer Ingelheim and Circuit announced their first collaboration in December 2013. Per the terms of the research collaboration agreement, which is slated to run three years, the companies will combine with research and development capabilities to provide novel avenues for drug discovery in the search for treatments for psychiatric disorders. No additional details regarding the deal were released. So far, the initial collaboration has resulted in the first targets for symptoms of anhedonia (the inability to feel and experience pleasure) relevant to several psychiatric disorders, which Boehringer Ingelheim will investigate further.
“We are excited to extend our partnership with Boehringer Ingelheim and utilize Circuit’s technological capabilities to advance drug discovery in yet another therapeutic area. The success of our first collaboration is founded in Boehringer Ingelheim’s unique partnering approach and its outstanding internal drug discovery capabilities. Together we aspire to establish a foundation for the development of transformational drugs to impact patients’ lives,” Fred Moll, chairman of Circuit Therapeutics, commented in a statement.
Continue reading below...
An Illustration of a woman with a visible digestive system on her shirt, surrounded by icons of bacteria and two-way arrows connecting to the brain, symbolizing the gut-brain connection.
ExplainersExplained: How does the vagus nerve regulate the gut-brain connection?
From signaling hunger to influencing mood, the vagus nerve keeps the gut and brain in sync.
Read More
As explained on Circuit Therapeutics' website, “Optogenetics requires two key components: A light-sensitive protein, or opsin, and light. Depending on the wavelength, light can either activate neurons with excitatory opsins, inhibit neurons with inhibitory opsins, or initiate cellular signaling cascades (OptoXR). Adjusting the location, strength and color of the light allows for great control of the proteins. The opsin toolbox thus provides great flexibility and specificity for modulating neuronal activity.”

About the Author

Related Topics

Loading Next Article...
Loading Next Article...
Subscribe to Newsletter

Subscribe to our eNewsletters

Stay connected with all of the latest from Drug Discovery News.

Subscribe

Sponsored

Fluorescent-style illustration of spherical embryonic stem cells clustered together against a dark background.
Explore how emerging in vitro systems — built from primary cells, cocultures, and vascularized tissues — are improving translational research outcomes. 
3D illustration of ciliated cells, with cilia shown in blue.
Ultraprecise proteomic analysis reveals new insights into the molecular machinery of cilia.
3D illustration showing a DNA double helix encapsulated in a transparent capsule, surrounded by abstract white and orange protein-like molecular structures against a blue background.
Discover an integrated analytical approach that unites identification, purification, and stability assessment for therapeutic molecules.
Drug Discovery News December 2025 Issue
Latest IssueVolume 21 • Issue 4 • December 2025

December 2025

December 2025 Issue

Explore this issue