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Diffchecker Desktop
가장 안전하게 Diffchecker를 사용하는 방법. 데스크톱 앱을 사용하면 비교 데이터가 외부로 전송되지 않습니다!
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opt_state_diff
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3년 전
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Diff
checker
Pro
요금제 보기
171 행
복사
4 추가
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총
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총
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이 기능을 계속 사용하려면 업그레이드해 주세요
Diff
checker
Pro
요금제 보기
171 행
복사
복사
복사됨
복사
복사됨
(EmptyState(), (ScaleByAdamState(count=Array(
0
, dtype=int32), mu=React(
(EmptyState(), (ScaleByAdamState(count=Array(
130
, dtype=int32), mu=React(
max_iters=10,
max_iters=10,
bottleneck=128,
bottleneck=128,
SEQLEN=16,
SEQLEN=16,
embed_dim=128,
embed_dim=128,
input_proj=LinearProj(
input_proj=LinearProj(
bias=f32[128],
bias=f32[128],
weight=f32[128,128],
weight=f32[128,128],
input_dim=128,
input_dim=128,
output_dim=128,
output_dim=128,
use_bias=True
use_bias=True
),
),
input_act=NewGELU(),
input_act=NewGELU(),
out_head=LinearProj(
out_head=LinearProj(
bias=f32[2],
bias=f32[2],
weight=f32[128,2],
weight=f32[128,2],
input_dim=128,
input_dim=128,
output_dim=2,
output_dim=2,
use_bias=True
use_bias=True
),
),
embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]),
embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]),
main_block=RecurrentModule(
main_block=RecurrentModule(
gelu=NewGELU(),
gelu=NewGELU(),
reshape_layer=LinearProj(
reshape_layer=LinearProj(
bias=f32[128],
bias=f32[128],
weight=f32[256,128],
weight=f32[256,128],
input_dim=256,
input_dim=256,
output_dim=128,
output_dim=128,
use_bias=True
use_bias=True
),
),
복사
복사됨
복사
복사됨
key=
u32[2]
,
key=
None
,
attention_blocks=[
attention_blocks=[
AttentionBlock(
AttentionBlock(
activation=NewGELU(),
activation=NewGELU(),
attn_gate=LiteAttention(
attn_gate=LiteAttention(
input_dim=256,
input_dim=256,
weight=LinearProj(
weight=LinearProj(
bias=f32[256],
bias=f32[256],
weight=f32[256,256],
weight=f32[256,256],
input_dim=256,
input_dim=256,
output_dim=256,
output_dim=256,
use_bias=False
use_bias=False
)
)
),
),
ln1=LayerNorm(
ln1=LayerNorm(
shape=256,
shape=256,
eps=1e-05,
eps=1e-05,
use_weight=True,
use_weight=True,
use_bias=True,
use_bias=True,
weight=f32[256],
weight=f32[256],
bias=f32[256]
bias=f32[256]
),
),
ln2=LayerNorm(
ln2=LayerNorm(
shape=256,
shape=256,
eps=1e-05,
eps=1e-05,
use_weight=True,
use_weight=True,
use_bias=True,
use_bias=True,
weight=f32[256],
weight=f32[256],
bias=f32[256]
bias=f32[256]
),
),
mlp=MLP(
mlp=MLP(
layers=[
layers=[
LinearProj(
LinearProj(
bias=f32[256],
bias=f32[256],
weight=f32[256,256],
weight=f32[256,256],
input_dim=256,
input_dim=256,
output_dim=256,
output_dim=256,
use_bias=True
use_bias=True
),
),
Lambda(fn=NewGELU()),
Lambda(fn=NewGELU()),
LinearProj(
LinearProj(
bias=f32[256],
bias=f32[256],
weight=f32[256,256],
weight=f32[256,256],
input_dim=256,
input_dim=256,
output_dim=256,
output_dim=256,
use_bias=True
use_bias=True
)
)
],
],
dropout=Dropout(p=None, inference=None)
dropout=Dropout(p=None, inference=None)
)
)
)
)
]
]
),
),
id=Identity(),
id=Identity(),
pos_enc=f32[16,128]
pos_enc=f32[16,128]
), nu=React(
), nu=React(
max_iters=10,
max_iters=10,
bottleneck=128,
bottleneck=128,
SEQLEN=16,
SEQLEN=16,
embed_dim=128,
embed_dim=128,
input_proj=LinearProj(
input_proj=LinearProj(
bias=f32[128],
bias=f32[128],
weight=f32[128,128],
weight=f32[128,128],
input_dim=128,
input_dim=128,
output_dim=128,
output_dim=128,
use_bias=True
use_bias=True
),
),
input_act=NewGELU(),
input_act=NewGELU(),
out_head=LinearProj(
out_head=LinearProj(
bias=f32[2],
bias=f32[2],
weight=f32[128,2],
weight=f32[128,2],
input_dim=128,
input_dim=128,
output_dim=2,
output_dim=2,
use_bias=True
use_bias=True
),
),
embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]),
embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]),
main_block=RecurrentModule(
main_block=RecurrentModule(
gelu=NewGELU(),
gelu=NewGELU(),
reshape_layer=LinearProj(
reshape_layer=LinearProj(
bias=f32[128],
bias=f32[128],
weight=f32[256,128],
weight=f32[256,128],
input_dim=256,
input_dim=256,
output_dim=128,
output_dim=128,
use_bias=True
use_bias=True
),
),
복사
복사됨
복사
복사됨
key=
u32[2]
,
key=
None
,
attention_blocks=[
attention_blocks=[
AttentionBlock(
AttentionBlock(
activation=NewGELU(),
activation=NewGELU(),
attn_gate=LiteAttention(
attn_gate=LiteAttention(
input_dim=256,
input_dim=256,
weight=LinearProj(
weight=LinearProj(
bias=f32[256],
bias=f32[256],
weight=f32[256,256],
weight=f32[256,256],
input_dim=256,
input_dim=256,
output_dim=256,
output_dim=256,
use_bias=False
use_bias=False
)
)
),
),
ln1=LayerNorm(
ln1=LayerNorm(
shape=256,
shape=256,
eps=1e-05,
eps=1e-05,
use_weight=True,
use_weight=True,
use_bias=True,
use_bias=True,
weight=f32[256],
weight=f32[256],
bias=f32[256]
bias=f32[256]
),
),
ln2=LayerNorm(
ln2=LayerNorm(
shape=256,
shape=256,
eps=1e-05,
eps=1e-05,
use_weight=True,
use_weight=True,
use_bias=True,
use_bias=True,
weight=f32[256],
weight=f32[256],
bias=f32[256]
bias=f32[256]
),
),
mlp=MLP(
mlp=MLP(
layers=[
layers=[
LinearProj(
LinearProj(
bias=f32[256],
bias=f32[256],
weight=f32[256,256],
weight=f32[256,256],
input_dim=256,
input_dim=256,
output_dim=256,
output_dim=256,
use_bias=True
use_bias=True
),
),
Lambda(fn=NewGELU()),
Lambda(fn=NewGELU()),
LinearProj(
LinearProj(
bias=f32[256],
bias=f32[256],
weight=f32[256,256],
weight=f32[256,256],
input_dim=256,
input_dim=256,
output_dim=256,
output_dim=256,
use_bias=True
use_bias=True
)
)
],
],
dropout=Dropout(p=None, inference=None)
dropout=Dropout(p=None, inference=None)
)
)
)
)
]
]
),
),
id=Identity(),
id=Identity(),
pos_enc=f32[16,128]
pos_enc=f32[16,128]
복사
복사됨
복사
복사됨
)), EmptyState(), ScaleByScheduleState(count=Array(
0
, dtype=int32))))
)), EmptyState(), ScaleByScheduleState(count=Array(
130
, dtype=int32))))
저장된 비교 결과
원본
파일 열기
(EmptyState(), (ScaleByAdamState(count=Array(0, dtype=int32), mu=React( max_iters=10, bottleneck=128, SEQLEN=16, embed_dim=128, input_proj=LinearProj( bias=f32[128], weight=f32[128,128], input_dim=128, output_dim=128, use_bias=True ), input_act=NewGELU(), out_head=LinearProj( bias=f32[2], weight=f32[128,2], input_dim=128, output_dim=2, use_bias=True ), embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]), main_block=RecurrentModule( gelu=NewGELU(), reshape_layer=LinearProj( bias=f32[128], weight=f32[256,128], input_dim=256, output_dim=128, use_bias=True ), key=u32[2], attention_blocks=[ AttentionBlock( activation=NewGELU(), attn_gate=LiteAttention( input_dim=256, weight=LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=False ) ), ln1=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), ln2=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), mlp=MLP( layers=[ LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ), Lambda(fn=NewGELU()), LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ) ], dropout=Dropout(p=None, inference=None) ) ) ] ), id=Identity(), pos_enc=f32[16,128] ), nu=React( max_iters=10, bottleneck=128, SEQLEN=16, embed_dim=128, input_proj=LinearProj( bias=f32[128], weight=f32[128,128], input_dim=128, output_dim=128, use_bias=True ), input_act=NewGELU(), out_head=LinearProj( bias=f32[2], weight=f32[128,2], input_dim=128, output_dim=2, use_bias=True ), embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]), main_block=RecurrentModule( gelu=NewGELU(), reshape_layer=LinearProj( bias=f32[128], weight=f32[256,128], input_dim=256, output_dim=128, use_bias=True ), key=u32[2], attention_blocks=[ AttentionBlock( activation=NewGELU(), attn_gate=LiteAttention( input_dim=256, weight=LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=False ) ), ln1=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), ln2=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), mlp=MLP( layers=[ LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ), Lambda(fn=NewGELU()), LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ) ], dropout=Dropout(p=None, inference=None) ) ) ] ), id=Identity(), pos_enc=f32[16,128] )), EmptyState(), ScaleByScheduleState(count=Array(0, dtype=int32))))
수정본
파일 열기
(EmptyState(), (ScaleByAdamState(count=Array(130, dtype=int32), mu=React( max_iters=10, bottleneck=128, SEQLEN=16, embed_dim=128, input_proj=LinearProj( bias=f32[128], weight=f32[128,128], input_dim=128, output_dim=128, use_bias=True ), input_act=NewGELU(), out_head=LinearProj( bias=f32[2], weight=f32[128,2], input_dim=128, output_dim=2, use_bias=True ), embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]), main_block=RecurrentModule( gelu=NewGELU(), reshape_layer=LinearProj( bias=f32[128], weight=f32[256,128], input_dim=256, output_dim=128, use_bias=True ), key=None, attention_blocks=[ AttentionBlock( activation=NewGELU(), attn_gate=LiteAttention( input_dim=256, weight=LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=False ) ), ln1=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), ln2=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), mlp=MLP( layers=[ LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ), Lambda(fn=NewGELU()), LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ) ], dropout=Dropout(p=None, inference=None) ) ) ] ), id=Identity(), pos_enc=f32[16,128] ), nu=React( max_iters=10, bottleneck=128, SEQLEN=16, embed_dim=128, input_proj=LinearProj( bias=f32[128], weight=f32[128,128], input_dim=128, output_dim=128, use_bias=True ), input_act=NewGELU(), out_head=LinearProj( bias=f32[2], weight=f32[128,2], input_dim=128, output_dim=2, use_bias=True ), embed_layer=Embedding(num_embeddings=8, embedding_size=128, weight=f32[8,128]), main_block=RecurrentModule( gelu=NewGELU(), reshape_layer=LinearProj( bias=f32[128], weight=f32[256,128], input_dim=256, output_dim=128, use_bias=True ), key=None, attention_blocks=[ AttentionBlock( activation=NewGELU(), attn_gate=LiteAttention( input_dim=256, weight=LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=False ) ), ln1=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), ln2=LayerNorm( shape=256, eps=1e-05, use_weight=True, use_bias=True, weight=f32[256], bias=f32[256] ), mlp=MLP( layers=[ LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ), Lambda(fn=NewGELU()), LinearProj( bias=f32[256], weight=f32[256,256], input_dim=256, output_dim=256, use_bias=True ) ], dropout=Dropout(p=None, inference=None) ) ) ] ), id=Identity(), pos_enc=f32[16,128] )), EmptyState(), ScaleByScheduleState(count=Array(130, dtype=int32))))
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