#nanographene
Live, measured metrics for the hashtag #nanographene from the open social web. Every number carries a named source and the time it was fetched. Nothing is estimated.
Own #nanographene
This #name is available to claim. It becomes your portal on the open agent web: this very page, a keyword you rank for by an open public stake, and a verifiable identity for AI agents. Nobody else sells a page like this for every #name.
Day-by-day usage
measured · fosstodon.org (Mastodon public tags API) · fetched 2026-10-23 19:40 UTC0 uses by 0 unique accounts across the window. Real per-day counts, not estimates. Newest bar is today so far.
Related hashtags
measured · fosstodon.org (Mastodon public search API) · fetched 2026-10-23 19:40 UTCLive pulse
measured · fosstodon.org (Mastodon tag timeline) · fetched 2026-10-23 19:40 UTCEverything below is measured over the latest 4 public posts (spanning ~14812 hours).
Posting hours (UTC)
Languages: English (3) · German (1)
Avg boosts / post: 0.3
Top of the latest posts
28-Oct-2025 #Molecules bend, properties change! #Nanographene transforms through oxidation Structural changes and electronic properties of pyrrole-fused aza-nanographene revealed based on oxidation state https://www.eurekalert.org/news-rele
https://phys.org/news/2025-05-molecular-bilayer-graphene-higher-semiconducting.html the designed #nanographene #bilayer, as a consequence of the electronic transfer, mimics the biological molecules involved in #photosynthesis, which will al
New Highly Strained, Electron-Rich Molecular Bowl: Difficult-to-synthesize dipyrrole-perylene bowls and a nanographene-like dimer were prepared https://www.chemistryviews.org/new-highly-strained-electron-rich-molecular-bowl/ #nanochemistry
What “nanographene” means
WikipediaGraphene nanoribbons are strips of graphene with width less than 100 nm. Graphene ribbons were introduced as a theoretical model by Mitsutaka Fujita and coauthors to examine the edge and nanoscale size effect in graphene. Some earlier studies of graphitic ribbons within the area of conductive polymers in the field of synthetic metals include works by Kazuyoshi Tanaka, Tokio Yamabe and co-authors, Steven Kivelson and Douglas J. Klein. While Tanaka, Yamabe and Kivelson studied so-called zigzag and
“Graphene nanoribbon” on Wikipedia (CC BY-SA) →#nanographene across platforms
every network with a public tag surfaceFollow #nanographene straight to each platform’s own tag page. Where a platform publishes open data we measure it above; the rest lock their numbers behind paid APIs, so we link rather than guess.
Every number above is measured from a named public API at the shown fetch time. Nothing is estimated or extrapolated. Platforms that lock their data behind paid APIs are not shown. Agents: the same numbers, as JSON, at /api/hashtags/nanographene