Miniscope Newsletter, September 2026

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Introducing the new Miniscope wiki

miniscope.org has a new home. The wiki is now the open-access knowledge base for the UCLA Miniscope Project, with designs, software, protocols, publications, and community resources in one place. Anyone can read it. With an account you can also post on the forum and add content. The old wiki is still online while we move material over.

Where to start:

  • Projects: every Miniscope design, including Miniscope V4 and Miniscope Zero, with build guides, software, and papers.
  • Guides: step-by-step how-tos, calibration walkthroughs, and reference material.
  • Experiment Registry: a searchable record of published Miniscope preparations, including brain region, indicator, lens, and species.
  • FAQ: answers to the questions that come up most often on the forum, from dropped frames to GRIN lens choice.
  • Forum: ask questions, share results, and see what other labs are doing.
  • Events and Office hours: workshops, training, and our biweekly drop-in sessions.
  • Publications: papers that use Miniscopes.

Anyone can read the wiki without an account. To post on the discussion forum, create a community profile, or contribute content, you'll need to request an account. We review requests manually to prevent spam, so approval may take a little time.

The forum is the place to go for questions, troubleshooting, and sharing protocols. Recurring questions and useful community contributions can also become guides and FAQ pages, making that information easier for others to find.

The wiki is still growing, so if something's missing or wrong, leave us a note on that page's talk page.


Preprint for the Miniscope Zero, a fully wireless Miniscope, is now available!

Congratulations to Marcel Brosch, PhD and Takuya Sasatani, PhD on their preprint describing Miniscope Zero, now on bioRxiv. Miniscope Zero is a one-photon calcium-imaging platform with no data tether and no power tether — named for its zero-tether operation. It combines wide-area wireless power based on quasistatic cavity resonance (QSCR) with a high-bandwidth optical data link, supporting real-time cellular-resolution imaging in freely behaving mice.




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