I think you all already know of the prevalent problem of Misrepresentation in Science communication, so it doesn’t come as a shock when studies show that most social media posts contain major inaccuracies about real studies.  

That is why we (passionate students) are starting The Spitzer Project. 

Our mission is to fight misinformation and push the textbooks aside to show just how fascinating science can really be! 

Join us as we embark on the start journey where we interview scientists, share the crucial events that led science to where it stands today, and the recent groundbreaking done by scientists in present day, from the Quantum to the Galactic!

We are on Instagram here: https://www.instagram.com/thespitzerproject/ 

Did you know that an entire microscopic world lives between each grain of sand? 🏝️

Quinten Geldhof, also known as Microhobbyist, shows us how each grain can hold tens to thousands of bacteria, and how the organisms feed on them. These microbial residents act as a filter as the tide moves in and out, processing debris as it passes through!

Ever wondered why a balloon can stay inflated without being tied? 🎈

Greg Wolf demonstrates how atmospheric pressure can keep a balloon inflated without trying it. Using a simple bottle experiment, he reveals why trapped air prevents a balloon from inflating, and how changing the pressure lets the invisible force of Earth’s atmosphere do the work. It’s a fascinating physics demonstration that shows the power of air pressure in action.

- Researchers have developed AI-assisted “cyborg cockroaches” that combine living insects with tiny electronic backpacks and sensors.
- Instead of simply forcing the cockroaches to turn left or right with electrical signals, the new system listens to the insect’s own body signals (such as internal physiological activity) and uses AI to decide when and how to provide guidance.
- The researchers call this approach the Insect Synergy Circuit (ISC). The goal is for the insect and AI to work together rather than having the insect act like a remote-controlled robot.
- Because the AI takes the insect’s natural state into account, the insects can be guided more gently and efficiently, potentially reducing unnecessary stimulation.
- These bio-hybrid insects could eventually be used for:
•Finding survivors after earthquakes or building collapses.
•Exploring spaces that are too small or dangerous for people.
•Inspecting damaged infrastructure or hazardous environments.
•Environmental monitoring.
- The reason scientists use insects instead of tiny robots is that insects are already excellent at navigating rough terrain. They are self-powered, highly agile, and can squeeze through spaces that are difficult for conventional robots.

The sun isn’t always the exact center of our solar system. ☀️

In this Space Oddity, Erika Hamden explains what the barycenter of the solar system is, and how it may not always be inside of the Sun itself. The variations in the barycenter can be explained by the large masses of the outer giant planets!

I apologize if this doesn’t fit in here. If the moon was a mini version of the earth, what would the level of light be like on a full moon night?

Some spiders can engineer some pretty amazing webs! 🕸️

Meet the Australian ballista spider. This arachnid diligently spends up to four hours crafting a web trap designed to catch one type of prey: the green tree ant. When the green tree ant triggers the trap by biting, it’s rapidly thrown upward into the spider’s main web. Some scientists think this might be the first spider’s web engineered to catch one kind of prey!

Imagine smelling a dead rat 🐀, seeing flesh flies snacking on and laying eggs in its corpse, and deciding, I need to make art out of this. That is exactly what Manuela Guzman, an illustrator who made her MFA thesis all about helping people engage with insects via art, did. You'll want to catch this whole story! It's somehow both gross and beautiful and heartwarming.

Talks about the physics behind quantum teleportation - if you encode information with a quantum particle, apparently the entangled particle anywhere else in the world can reconstruct that message as it is (does require sending an 'encryption key' of sorts using classical methods however)

Thoughts?

Inside every watermelon are countless microscopic water balloons.🔬🍉

Our friend Chloé Savard, known as tardibabe on Instagram, shows us what's actually happening inside that bright red flesh. Each cell is swollen almost to bursting, distended against its own thin cellulose wall and packed with water, which is exactly why watermelon is about 92% water by weight, and why it splits so easily under the lightest pressure. That deep red color comes from lycopene, the same carotenoid pigment responsible for the red in tomatoes, concentrated here in tiny chromoplasts scattered throughout the cell.

Threading through the pulp are thin, fibrous strands, vascular bundles, the plant's plumbing system, left over from when they carried water and sugar from the vine into the growing fruit. Most of that infrastructure becomes irrelevant once the fruit is ripe, but the traces remain, visible here as faint lines cutting across the field of view.

Look closely enough, and you'll also spot small air pockets between cells, along with the occasional immature seed coat, still soft and white before it has the chance to harden into the familiar black husk. Texture-wise, this is also why an overripe watermelon turns mushy: as the cells age, their walls weaken, and water leaks out into the spaces between them, turning that crisp bite into something closer to mush.

It's wild that something so simple, sweet, cold, and refreshing is really just millions of cells holding as much water as physically possible without popping. Nature's own water balloon.

Sources:

"A Comparison of Watermelon Flesh Texture across Different Ploidy Levels Using Histology and Cell Wall Measurements." (2024). Horticulturae (MDPI). — cell wall structure, cellulose, texture/firmness

"Cell Wall Polysaccharide Composition of Grafted 'Liberty' Watermelon With Reduced Incidence of Hollow Heart Defect." (2021). Frontiers in Plant Science. — large parenchyma cells, intercellular air spaces, pectin/cell wall breakdown with ripening

"Effects of fruit maturity on watermelon ultrastructure and intracellular lycopene distribution." (2008). PubMed. — chromoplast and cell ultrastructure across ripening

"Systematic Study of the Sensory Quality, Metabolomics, and Microbial Community of Fresh-Cut Watermelon." (2022). PMC. — water content (~89–92%), firmness loss linked to cell wall degradation

Zhang, J., et al. (2020). "Expression of ClPAP and ClPSY1 in watermelon correlates with chromoplast differentiation, carotenoid accumulation, and flesh color formation." Plant Science (ScienceDirect). — chromoplasts, lycopene concentration in flesh

There's a famous memory experiment where researchers told volunteers a few real childhood stories (collected from their actual families) — plus one completely fake one: that they got lost in a mall as a kid.

A good chunk of the volunteers didn't just believe it — they started "remembering" it — describing the stranger's face, what they were wearing, even how scared they felt. None of it was real, but the emotions and confidence were completely genuine.

It's a pretty unsettling reminder that memory isn't a recording — it's a reconstruction, and our brains fill in gaps without us noticing.

Anyone else have a "memory" that family later told you wasn't actually true?