If you’ve ever imagined what your body might look like if it were run like a machine—complete with gears, boilers, and pipes—you’re not alone. In 1926, German physician and science writer Fritz Kahn published a lithograph titled “Der Mensch als Industriepalast” (“Man as Industrial Palace”). The illustration shows the human body not as flesh and bone, but as a humming industrial facility. Gears power the throat. Bellows simulate the lungs. Stomachs sort rocks like an old conveyor belt. It’s part whimsical metaphor, part surprisingly intuitive biology lesson.
More than 80 years later, German artist Henning Lederer breathed new life into Kahn’s vision by animating the diagram. The result is a hypnotic, pulsing visualization of human processes, divided into systems such as respiration, digestion, circulation, and neural control. It's part art, part science, and weirdly meditative to watch.
The video lets you see each system working together, as if you’re peeking inside an assembly line made of organs. Lederer’s interactive version lives on at IndustriePalast.com, and a detailed PDF about the project is also available there. More of his kinetic infographics can be viewed on his Vimeo page.
What’s fascinating is how relevant Kahn’s century-old metaphor still feels—especially today, when science is making literal what he drew symbolically. When one part of the body breaks down, whether it’s a heart, kidney, or liver, we no longer rely only on medication or surgery to patch it up. Modern science now works on two major paths to “replace” failing organs: biological reconstruction and mechanical substitution.
The biological route includes tissue engineering, regenerative medicine, and stem-cell research. Scientists have already grown miniature hearts that beat on their own, mini-lungs, and kidney organoids using stem cells in lab conditions. Researchers at companies like Humacyte are even developing lab-grown blood vessels, which are being tested in human trials to help with dialysis and trauma recovery.
There are also advances in bioprinting, where cells are printed layer by layer to build 3D organ structures. These living tissues may one day be used in place of donor organs, reducing the need for transplants and the risk of rejection.
But biology hasn’t solved everything yet. That’s where artificial, man-made organs step in. Many people today live longer and better thanks to technology like dialysis machines, heart pumps, cochlear implants, or even neural devices that help with movement or chronic pain. Completely artificial hearts are still uncommon, but the technology is improving year by year. Researchers are also working on wearable and implantable artificial kidneys that could one day replace dialysis.
This field is growing fast - not just in labs but in the real world. According to market analysts, artificial organ technologies are expected to expand from about $19 million in 2025 to more than $130 million by 2032, with demand rising as the tech gets better and more people need organ support.
That said, there's still a long way to go. One big hurdle is figuring out how to recreate the chemical processes inside our bodies, not just the structure. It’s also tough to make sure lab-grown organs will connect and work properly with the rest of the body, especially when scaled up for actual transplants.
Kahn’s “Industrial Palace” image might’ve been metaphorical, but it was ahead of its time. Today’s scientists are learning how to repair and rebuild the human factory, piece by piece - whether with living tissues or mechanical parts. The human body may be more complex than any factory, but it’s also more fixable than we once believed.
Amazon links (disclosure: these are affiliate links and will take you to Amazon’s website)
- Fritz Kahn Poster Print – Vintage science art for home or office
- The Body Factory: A Visual Guide to the Human Machine – Illustrated anatomy book

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