Two remarkable examples of quick victories using AI.
1) Understanding the hieroglyphics on a European clothes washer.
2) Instandtly translating an Italian newspaper article about precision medicine.
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I am in an italian apartment in Rome and I am flummoxed by this cryptic clothes washer dial. There’s no manuals. Help me understand the options, symbols, and what to select.
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The image you've shared is of a washing machine dial with various symbols around it, each representing different washing settings. Here’s a breakdown of the common symbols and their likely meanings based on standard washing machine icons:
- Shirt with steam - This likely indicates an ironing or steam cycle to reduce wrinkles.
- Shirt - This could be a normal or mixed fabric wash.
- T-shirt - Typically, this symbolizes a cycle for cottons.
- Bucket with a hand - Hand wash cycle for delicate items.
- Towel - This might represent a heavier or more robust cycle for towels or linens.
- Feather (cloud-like symbol) - Often used for down items like jackets or pillows.
- EcoMix 20° - An eco-friendly cycle at 20 degrees Celsius, good for mixed fabrics without heavy soiling.
- Baby bottle and shirt - Could be a cycle for baby clothes or possibly a sanitary cycle that uses higher temperatures.
- Jeans - A cycle designed for denim or heavier fabrics.
- OFF - The machine's off position.
Other features indicated on the dial:
- 59 Min. - This seems to be a quick wash setting that completes in 59 minutes.
- 14/30/44 Min. - Options for even quicker washes, potentially for lightly soiled items.
For use, you can select the setting that best fits your laundry type:
- Normal fabrics like mixed cottons can go on the normal or mixed fabric setting (T-shirt icon).
- Delicate items should use the hand wash cycle (bucket with hand).
- Towels and linens can be washed on the towel setting.
- Quick washes can be utilized when you're pressed for time using the 59 min or shorter options.
Make sure to adjust the temperature and spin settings, if possible, to suit your fabric type and how heavily soiled your clothes are.
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Yesterday in Rome, I was reading (slowly) the newpaper La Republicca, and came across a pair of articles on precision medicine.
I took a picture of the first one, uploaded it to Chat GPT 4, and asked for a translation. It's instant.Chat GPT writes:
Investigating Proteins
by Marta Paterlini
Understanding the structure of proteins and other biological macromolecules is fundamental for understanding their function. For example, the structure of a virus provides essential clues about how it invades a cell. For decades, biologists have used X-ray crystallography, a technique that involves crystallization, X-ray bombardment, and the reconstruction of the shape from the diffracted light. It is far from a simple procedure, as some molecules can take months or years to crystallize (or may not crystallize at all). The shift is due to Richard Henderson, a biophysicist at the Laboratory of Molecular Biology (LMB) in Cambridge, who shared the Nobel Prize in Chemistry in 2017 with Jacques Dubochet and Joachim Frank for developing cryo-electron microscopy (cryo-EM).
Unlike X-ray crystallography, cryo-EM studies complex macromolecules in their physiological environment without the potential artifacts generated in the crystallization process. It works more or less like ordinary microscopy, with the difference that the sample is hit by a beam of electrons instead of light. In theory, the resolution of the electron microscope should therefore be sufficient to obtain the atomic structure of a membrane protein, but the project turned out to be more complicated than expected. "I continued with attempts," recounts the Nobel laureate. "I immersed the protein in a glucose solution to prevent it from drying out. I reduced the intensity of the electron beam and took advantage of the regular arrangement of the protein in the membrane. This allowed me, in 1975, to reconstruct the protein's shape from the diffusion of electrons."
In the 1980s, cryo-technology was developed, in which samples were rapidly cooled with liquid nitrogen, protecting them from damage by the electron beam. The last technical obstacle, Henderson adds, was overcome in 2013 when a new type of electron detector was introduced. Now cryo-electron microscopy, combined with X-ray crystallography under the umbrella of structural biology, provides fundamental knowledge for research on diseases but also for the development of pharmaceutical products.
"Exploring the structure of a virus means understanding how it aggressively invades cells."