A
♠
Ψ
Quantum
iℏ∂
t
ψ = Ĥψ
A
♠
K
♦
γ
Universe
Δs² = c²Δt² − Δx²
K
♦
Q
♣
∇
Deep Learning
θ′ = θ − η∇ℒ
Q
♣
J
♥
π
E
Imitation Learning
ℒ
BC
= −𝔼 log π
θ
J
♥
10
♠
Q*
Reinforcement Learning
J = 𝔼∑γ
t
r
t
10
♠
9
♦
VLA
Vision · Language · Action
a ∼ π
θ
(I,ℓ)
9
♦
iℏ
∂
∂t
|ψ⟩ = Ĥ|ψ⟩
ψ(x,t) = Ae
i(kx−ωt)
Δx · Δp ≥
ℏ
2
E
n
= −
13.6 eV
n²
E = hν =
hc
λ
p =
h
λ
γ =
1
√(1 − β²)
x′ = γ(x − vt)
t′ = γ(t − vx/c²)
Δs² = c²Δt² − Δx² − Δy² − Δz²
G
μν
+ Λg
μν
=
8πG
c⁴
T
μν
Attention(Q,K,V) = softmax(
QK
T
√d
k
)V
h
(l)
= σ(W
(l)
h
(l−1)
+ b
(l)
)
ℒ
CE
= −∑
i
y
i
log p
i
θ
t+1
= θ
t
− η∇
θ
ℒ
(f * g)[n] = ∑
m
f[m]g[n−m]
z = μ + σ ⊙ ε, ε ∼ 𝒩(0,I)
θ* = arg min
θ
𝔼
(o,a)∼𝒟
E
[−log π
θ
(a|o)]
ℒ
BC
= −
1
N
∑
i=1
N
log π
θ
(a
i
|o
i
)
𝒟 ← 𝒟 ∪ {(s,π
E
(s))}
min
π
max
D
𝔼
π
E
[log D] + 𝔼
π
[log(1−D)]
D
KL
(π
E
∥ π
θ
) = ∑ π
E
log
π
E
π
θ
J(θ) = 𝔼
τ∼π
θ
[∑
t=0
H
γ
t
r
t
]
Q*(s,a) = 𝔼[r + γ max
a′
Q*(s′,a′)]
∇
θ
J = 𝔼[∑
t
∇
θ
log π
θ
(a
t
|s
t
)Â
t
]
δ
t
= r
t
+ γV(s
t+1
) − V(s
t
)
ℒ
CLIP
= 𝔼[min(r
t
Â
t
,clip(r
t
,1−ε,1+ε)Â
t
)]
a
t:t+H
∼ π
θ
( · | I
t−k:t
, ℓ )
z = [f
v
(I
t−k:t
); f
ℓ
(ℓ)]
p(a
1:H
|z) = ∏
h=1
H
p(a
h
|a
<h
,z)
ℒ
act
= ∑
h=1
H
‖a
h
− â
h
‖²
π
T
(a|z) = softmax(logits(z)/T)