๐บ๐ธ | ๐ฏ๐ต | ๐ต๐ท | ๐จ๐ณ
English | ๆฅๆฌ่ช | Espaรฑol | ไธญๆ
๐๏ธ Building Apps for the Japanese Learner
๐ Check Out What I'm Building
Volume helped me solve a problem most people encounter when learning a language: forgetting.
Immersion helped me come into contact with words I learned more often than using Spaced Repetition alone.
Sometimes it feels like I'm spending 90% of my time reviewing Japanese, but it's worth it.
Although I count reviewing as Anki reviews, reading, watching shows etc.
Japanese learning requires both impatience and patience.
Impatience enough to do something right now.
Patient enough to allow your daily efforts to compound.
There are Kind learning environments: Doing Anki reviews, reading a textbook, doing workbook exercises
There are also Unkind learning environments: Watching anime, listening to podcasts, talking with friends
I try to spend 80% of my time exposed to Unkind environments and 20% exposed to Kind environments.
It's helped a lot for being able to hold and follow along in conversations.
I initially gave myself 2 years to learn Japanese. My only goal was: Learn 10,000 words in sentences.
So I just did simple math and studied
10,000 / (365*2) = 14 words per day
Doing that and not missing a day is what eventually got me to fluency.
From @AlexHormozi
Volume โ๏ธ Time ๐ฐ Skill
Said differently
Number of reps per day โ๏ธ Number of days ๐ฐ Skill
Either increase your reps, the number of days, or both to get a skill
This is not necessarily the case. There have been some isolated cases where using water made the situation worse rather than better. And it heavily depends on system architecture.
For large BESS (Battery Energy Storage System) fires, getting water to the cells inside of modules that are inside of racks is incredibly difficult. Cell packing densities are usually such that it's unlikely you'd be able to get sufficient water between cells to mitigate thermal runaway.
When thermal runaway happens, electrolyte in the battery decomposes and adjacent anode-cathode layers can touch creating a short circuit which feeds back into increased thermal load. This happens on the order of seconds and water alone is not sufficient to cool large form factor cells (where the industry is headed).
Also, when batteries experience thermal runaway they release gases typically consisting of hydrogen, carbon monoxide, and other hydrocarbons (depending on state of charge). If the gases aren't allowed to burn, they can accumulate and pose an explosion hazard. Current tactics mostly center around letting the batteries just burn. There's also nasty chemicals in the gases such as hydrogen fluoride, hydrogen chloride, and hydrogen cyanide. Battery fires are no fun.
Maybe for small cells water can be enough, but for larger systems it may not make sense.