A Python script for wrapping the Jellyfish (a fork of Jelly) executable so you can more easily play with the language.

• Jelly GitHub Repo
• Jelly Online Interpreter
• Jellyfish Repo 🪼

• Jello LiveStream I
• Jello LiveStream II
• Jello LiveStream III
• Jello LiveStream IV (Top 10)
• Jello LiveStream V (PWC)
• Jello LiveStream VI (bits, keep, cuts.md, --find-by-example)
• Jello LiveStream VII (maxs, cuts, Combinators i.e. Φ.₂)

• BQN vs Jelly

• LCC: Leading Constant Chain
• LDC: Leading Dyadic Chain (described in the first bullet here)
• JL: Just use Left Arg (as v)

Q: What makes my chain monadic?
A: If you only pass it one argument (aka ω)

• IC = Initial Combinator
• SC = Subsequent Combinator
• m = Monadic function application
• d = Dyadic function application

Q: What makes my chain dyadic?
A: If you pass it two arguments (aka λ and ρ)

+H can be called monadically or dyadically, and is a 2-1 chain.

• If called monadically, its a 2-1 monadic train, aka the S combinator.
• If called dyadically, it is a JL+5+6, which ends up being the B₁ combinator.

+²× can be called monadically or dyadically, and it is a 2-1-2 chain.

• If called monadically, S forms a monadic function, that is then used in Σ
• If called dyadically, the 2-1 is the B₁ combinator, and then used in a Φ₁ where the left dyadic function is ⊢.

+×÷H can be called monadically and dyadically, and it is a 2-2-2-1 chain.

• If called monadically, apply W is applied, then evalaate the 2-2 part as repeated (or 2) S combinators, and then the 2-1 chain at the end matches the S combinator.
• If called dyadically, we have a LDC, which means the 2-2-2 forms the Φ₁ which yield a binary function that is then used in the sits inside a B₁ along with the final monadic operation.