Microscopy Blog @bolioptics - Tumblr Blog

Today’s WHAT’S THAT MICROSCOPY?! [40x]

Geckos are famous for their climbing abilities due to their special feet lined with microscopic hairs called setae. Each foot contains over 500,000 setae, which are 10x smaller than a human hair. [@microscopicvision]

earthstory

Snowflake

H2O is a fascinating substance. It is literally the only common chemical compound found on Earth in liquid, solid, and vapor states under common conditions. H2O ice meets all the definitions of a mineral – solid, crystalline structure, etc.; but it’s a pretty neat mineral since it occasionally falls from the sky!

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babyvaliuum

C.L.Frost, untitled photograph of cream cheese mould

asloversdrown

Human fingerprint. The smaller circles within the epidermal ridges are sweat gland ducts. P.S. Don’t touch me ever again

neat-deadandlive-things

Any guesses?

4x magnification on a dissecting scope. Hint is in the tags.

neat-deadandlive-things

Cool shot from kicknet invertebrate counts.

neat-deadandlive-things

Entomology people!

What is this? Found in a kicknet sample in late fall in a small urban stream. It's about 2 mm long.

I've sent pictures of a few other bug people but I though someone on here might recognize it.

Possibly a beetle larva? It does have 6 legs, mandibles, and a pronotum that doesn't cover the head.

yuoic-deactivated20240615

... I think this is the bugambilia petal.

yuoic-deactivated20240615

These are the tips of the long things that come out of the bugambilia flowers

yuoic-deactivated20240615

This was one of the fluffy tubes that come out of those elongated flowers. And its hairs.

nemfrog

“Electron mirror micrograph of magnetic domain pattern of barium ferrite.” Encyclopedia of microscopy. 1961.

Internet Archive

miss-biophys

Data analysis today.

The green-orange thing is a membrane vesicle (like a tiny ball) produced by a cancer cell. I put these membranes under the AFM microscope, scan their shape and height with a tiny needle (AFM tip), then pinch them with this needle, and record how much force I need to bend them and pinch through.

Now I am trying to analyze those data to get to know how stiff these membranes secreted from cancer cells are. These membrane vesicles are so small that they are not visible under any optical microscope! They are literally about 100 nm = 0.000 000 1 m in diameter or even smaller. The needle I use to scan their surface is only 10 nm = 0.000 000 01 m wide.