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USPTO ID
stringclasses
259 values
Table Number
int64
2
204
Compound ID
int64
3.1k
1.84M
HELM Annotation
stringlengths
16
287
model_eligible
bool
2 classes
cell_line
stringclasses
147 values
dosage_nm
float64
0
5M
target_RNA
stringclasses
131 values
Inhibition_pct
float64
-923
100
cells_per_well
float64
1k
15M
cell_line_species
stringclasses
6 values
transfection_method
stringclasses
3 values
treatment_period_hrs
float64
4
144
ccle_cell_line_name
stringclasses
53 values
ccle_model_id
stringclasses
53 values
ccle_oncotree_lineage
stringclasses
14 values
ccle_oncotree_disease
stringclasses
19 values
cell_line_mapping_source
stringclasses
5 values
US20250223589A1
10
435,879
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](T)[sp].[moe](A)[sp].[moe](A)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
12,000
HTT
60
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,890
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].d(T)[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
750
HTT
21
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,890
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].d(T)[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
3,000
HTT
34
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,890
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].d(T)[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
6,000
HTT
54
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,890
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].d(T)[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
12,000
HTT
71
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,925
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].d(A)[sp].d(A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].[moe](G)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
750
HTT
2
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,925
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].d(A)[sp].d(A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].[moe](G)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
1,500
HTT
10
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,925
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].d(A)[sp].d(A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].[moe](G)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
3,000
HTT
28
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,925
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].d(A)[sp].d(A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].[moe](G)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
6,000
HTT
43
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,925
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].d(A)[sp].d(A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].[moe](G)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
12,000
HTT
78
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,926
RNA1{{[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
750
HTT
7
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,926
RNA1{{[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
1,500
HTT
25
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,926
RNA1{{[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
3,000
HTT
37
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,926
RNA1{{[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
6,000
HTT
73
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,926
RNA1{{[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
12,000
HTT
79
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,928
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
750
HTT
15
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,928
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
1,500
HTT
39
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,928
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
3,000
HTT
60
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,928
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
6,000
HTT
73
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,928
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(T)[sp].d(G)[sp].d(T)[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
12,000
HTT
87
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,931
RNA1{{[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
750
HTT
13
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,931
RNA1{{[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
1,500
HTT
13
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,931
RNA1{{[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
3,000
HTT
32
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,890
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].d(T)[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
1,500
HTT
28
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,339
RNA1{{[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
12,000
HTT
82
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,869
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
750
HTT
12
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,879
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](T)[sp].[moe](A)[sp].[moe](A)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
6,000
HTT
53
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,869
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
3,000
HTT
37
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,869
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
6,000
HTT
45
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,869
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
12,000
HTT
79
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,870
RNA1{{[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe](A)}}$$$$
true
GM02173B
750
HTT
20
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,870
RNA1{{[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe](A)}}$$$$
true
GM02173B
1,500
HTT
26
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,870
RNA1{{[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe](A)}}$$$$
true
GM02173B
3,000
HTT
58
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,870
RNA1{{[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe](A)}}$$$$
true
GM02173B
6,000
HTT
53
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,870
RNA1{{[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(T)[sp].d(G)[sp].[moe](A)[sp].[moe](G)[sp].[moe](G)[sp].[moe](G)[sp].[moe](A)}}$$$$
true
GM02173B
12,000
HTT
78
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,871
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](T)[sp].[moe]([5meC])}}$$$$
true
GM02173B
750
HTT
15
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,871
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](T)[sp].[moe]([5meC])}}$$$$
true
GM02173B
1,500
HTT
16
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,871
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](T)[sp].[moe]([5meC])}}$$$$
true
GM02173B
3,000
HTT
32
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,871
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](T)[sp].[moe]([5meC])}}$$$$
true
GM02173B
6,000
HTT
45
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,871
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].d(T)[sp].d(T)[sp].d([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](T)[sp].[moe]([5meC])}}$$$$
true
GM02173B
12,000
HTT
71
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,874
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].d([5meC])[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
750
HTT
13
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,874
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].d([5meC])[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
1,500
HTT
8
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,874
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].d([5meC])[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
3,000
HTT
28
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,874
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].d([5meC])[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
6,000
HTT
36
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,874
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].d([5meC])[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)}}$$$$
true
GM02173B
12,000
HTT
31
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,879
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](T)[sp].[moe](A)[sp].[moe](A)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
750
HTT
22
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,879
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](T)[sp].[moe](A)[sp].[moe](A)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
1,500
HTT
20
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,879
RNA1{{[moe](A)[sp].[moe](A)[sp].[moe](T)[sp].[moe](A)[sp].[moe](A)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d(T)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
3,000
HTT
36
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,931
RNA1{{[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
6,000
HTT
61
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,931
RNA1{{[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].d([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
12,000
HTT
62
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,339
RNA1{{[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
6,000
HTT
67
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,328
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
750
HTT
8
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,339
RNA1{{[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
3,000
HTT
38
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
387,916
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d(T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
750
HTT
27
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
387,916
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d(T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
1,500
HTT
65
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
387,916
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d(T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
3,000
HTT
84
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
387,916
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d(T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
6,000
HTT
81
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
387,916
RNA1{{[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](T)[sp].d(A)[sp].d(T)[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(T)[sp].d(T)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].[moe](G)}}$$$$
true
GM02173B
12,000
HTT
96
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,303
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].d(A)[sp].d(G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)}}$$$$
true
GM02173B
750
HTT
23
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,303
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].d(A)[sp].d(G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)}}$$$$
true
GM02173B
1,500
HTT
48
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,303
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].d(A)[sp].d(G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)}}$$$$
true
GM02173B
3,000
HTT
52
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,303
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].d(A)[sp].d(G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)}}$$$$
true
GM02173B
6,000
HTT
76
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,303
RNA1{{[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].d(A)[sp].d(G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)}}$$$$
true
GM02173B
12,000
HTT
76
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,869
RNA1{{[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].d([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](G)[sp].[moe]([5meC])[sp].[moe](A)}}$$$$
true
GM02173B
1,500
HTT
24
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,328
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
1,500
HTT
14
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,328
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
6,000
HTT
34
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,328
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
12,000
HTT
50
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,331
RNA1{{[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe](G)[sp].[moe](A)[sp].[moe](T)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
750
HTT
10
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,331
RNA1{{[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe](G)[sp].[moe](A)[sp].[moe](T)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
1,500
HTT
17
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,331
RNA1{{[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe](G)[sp].[moe](A)[sp].[moe](T)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
3,000
HTT
16
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,331
RNA1{{[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe](G)[sp].[moe](A)[sp].[moe](T)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
6,000
HTT
27
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,331
RNA1{{[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d([5meC])[sp].d(T)[sp].d(A)[sp].d(G)[sp].d(T)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe](G)[sp].[moe](A)[sp].[moe](T)[sp].[moe](G)[sp].[moe]([5meC])}}$$$$
true
GM02173B
12,000
HTT
32
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,339
RNA1{{[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
750
HTT
28
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,339
RNA1{{[moe]([5meC])[sp].[moe](T)[sp].[moe](G)[sp].[moe](A)[sp].[moe](G)[sp].d([5meC])[sp].d(G)[sp].d(G)[sp].d(A)[sp].d(G)[sp].d(A)[sp].d(A)[sp].d(A)[sp].d([5meC])[sp].[moe]([5meC])[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
1,500
HTT
26
25,000
human
Electroporation
16
null
null
null
null
primary
US20250223589A1
10
435,328
RNA1{{[moe]([5meC])[sp].[moe](A)[sp].[moe]([5meC])[sp].[moe](A)[sp].[moe](A)[sp].d(G)[sp].d(G)[sp].d(G)[sp].d([5meC])[sp].d(A)[sp].d([5meC])[sp].d(A)[sp].d(G)[sp].d(A)[sp].[moe]([5meC])[sp].[moe](T)[sp].[moe](T)[sp].[moe]([5meC])[sp].[moe]([5meC])}}$$$$
true
GM02173B
3,000
HTT
19
25,000
human
Electroporation
16
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
0.0001
LPA
7
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
0.1
LPA
0
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
0.01
LPA
10
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
0.001
LPA
8
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,127
null
false
Primary human hepatocytes
10
LPA
27
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
0.00001
LPA
-11
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,127
null
false
Primary human hepatocytes
10,000
LPA
60
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,127
null
false
Primary human hepatocytes
1,000
LPA
40
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,127
null
false
Primary human hepatocytes
100
LPA
21
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
10
LPA
40
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
1
LPA
14
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
0.0001
LPA
-3
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
100
LPA
61
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
1,000
LPA
70
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,126
null
false
Primary human hepatocytes
10,000
LPA
77
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
0.00001
LPA
2
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
0.001
LPA
5
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
0.01
LPA
10
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
0.1
LPA
14
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
1
LPA
-12
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
10
LPA
-1
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
100
LPA
-9
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
12
1,841,125
null
false
Primary human hepatocytes
1,000
LPA
-4
35,000
human
Gymnosis
96
null
null
null
null
primary
US20250215044A1
15
1,840,893
null
false
transgenic_primary_mouse_hepatocytes
0.0128
LPA
2
30,000
mouse
Gymnosis
24
null
null
null
null
primary
US20250215044A1
12
1,841,127
null
false
Primary human hepatocytes
0.1
LPA
14
35,000
human
Gymnosis
96
null
null
null
null
primary
End of preview. Expand in Data Studio

ASO Atlas 2.0

A dataset of patent-reported antisense oligonucleotide (ASO) experiments for studying in vitro activity, dose response, hepatotoxicity and neurotoxicity across the preclinical pipeline. It is designed for research benchmarking, exploratory modelling and analysis of the published ASO assay landscape.

At a glance

  • 295,007 assay readouts from 606 USPTO patent filings
  • 165,782 unique, chemistry-resolved ASOs represented in HELM notation
  • 430 named target genes
  • Four ready-to-load configurations covering in vitro efficacy and in vivo safety
  • Patent-grouped cross-validation folds for leakage-controlled benchmarking

Quick start

from datasets import load_dataset

dataset = load_dataset(
    "barneyhill/aso-atlas-2",
    "in_vitro_inhibition",
    split="full",
)
print(dataset[0])

Replace in_vitro_inhibition with dose_response, hepatotoxicity or neurotoxicity to load another assay type.

What's included

Each configuration is a separate table because the experimental endpoints and schemas differ. Together they cover four stages commonly encountered in preclinical ASO evaluation:

Config Readouts Model-eligible readouts Unique HELM compounds Named target genes
in_vitro_inhibition 174,459 173,286 161,434 389
dose_response 99,821 97,236 16,375 130
hepatotoxicity 15,831 15,427 1,881 42
neurotoxicity 4,896 4,892 3,312 15
Total 295,007 290,841 165,782 430

Of the 295,007 readouts, 290,841 have a resolved HELM annotation. The remaining 4,166 retain a reported assay outcome but cannot be used directly by chemistry-aware models.

Benchmark folds

The folds/ directory provides frozen, endpoint-specific five-fold assignments for reproducible evaluation with OligoGym and OligoAI. The splits group observations by source patent to reduce train-test leakage.

Each model-ready endpoint was constructed separately before patent-level GroupKFold was applied. A patent's fold number can therefore differ between endpoints and between OligoGym and OligoAI. In each file, rows assigned to fold k are the test set for run k; the other four folds form the training set. See folds/README.md for schemas and fold sizes.

Versioning and reproducibility

This card describes ASO Atlas 2.0. The data tables, generated counts and machine-readable metadata are released together. The source and release-building code is available in the ASO Atlas 2 repository, and croissant.json provides Croissant 1.1 core + RAI metadata. The dataset has a persistent Hugging Face DOI: 10.57967/hf/8687.

Data Fields

Common fields (all configs)

Field Type Description
USPTO ID string Source patent identifier (e.g., US20150011212)
Table Number int Table number within the patent
Compound ID int Compound identifier within the patent
HELM Annotation string, nullable Full chemical structure in HELM notation; null where chemistry could not be resolved
model_eligible bool True when a resolved HELM annotation permits chemistry-aware model input
target_RNA string Target gene/transcript name

in_vitro_inhibition / dose_response

Field Type Description
cell_line string Cell line used (e.g., HepG2, A549)
dosage_nm float Dose in nanomolar
Inhibition_pct float mRNA inhibition percentage (-1000 to 100)
cells_per_well float Cells seeded per well
cell_line_species string Species of origin (human, mouse, etc.)
transfection_method string Delivery method (electroporation, lipofection, etc.)
treatment_period_hrs float Treatment duration in hours
ccle_cell_line_name string Matched CCLE cell line name
ccle_model_id string DepMap model ID
ccle_oncotree_lineage string Oncotree tissue lineage
ccle_oncotree_disease string Oncotree disease classification
cell_line_mapping_source string How the CCLE match was determined

hepatotoxicity

Field Type Description
species string Test species (mouse, rat, monkey, dog)
species_strain string Strain (e.g., CD-1 mice, Sprague-Dawley rats)
dosage_mg_per_kg float Dose per administration (mg/kg)
num_doses float Number of doses administered
dosing_period_days float Duration of dosing period
adminstration_method string Route (subcutaneous, intraperitoneal)
measurement_source string Sample type (plasma, urine)
ALT list[float] Alanine aminotransferase values (IU/L)
AST list[float] Aspartate aminotransferase values (IU/L)
ALB list[float] Albumin values (g/dL)
BUN list[float] Blood urea nitrogen values (mg/dL)
CREA list[float] Creatinine values (mg/dL)
TBIL list[float] Total bilirubin values (mg/dL)
PC_ratio list[float] Protein/creatinine ratio

neurotoxicity

Field Type Description
species string Test species
species_strain string Strain
dosage_ug float Dose in micrograms
FOB_score list[float] Functional observation battery scores (0-7)
latency_time_hours float Time from dosing to observation
administration_method string Route (typically intracerebroventricular)
tolerability_score_type string Scoring system used

HELM Chemistry Encoding

HELM (Hierarchical Editing Language for Macromolecules) encodes full oligonucleotide chemistry including sugar modifications, backbone linkages, and base modifications.

Example: RNA1{{[moe](C)[sp].[moe](T)[sp].d(A)[sp].d(G)[sp].[cet](A)}}$$$$

Sugar Chemistry Backbone Chemistry
d 2'-deoxy (DNA) [sp] Phosphorothioate
[moe] 2'-O-methoxyethyl . Phosphodiester
[cet] Constrained ethyl [am] Phosphoramidate
[lna] Locked nucleic acid
[fR] 2'-fluoro
[m] 2'-O-methyl

Dataset Creation

Source

All data was extracted from publicly available USPTO patent filings using an LLM-based text mining pipeline. Patents were identified via keyword search for antisense oligonucleotide-related terms, and data tables within each patent were parsed to extract compound structures, assay conditions, and measured endpoints.

Cell-line enrichment uses Model.csv from DepMap Public 25Q3, downloaded on 20 January 2026 (source SHA-256 9dbb9de8805696c1345816ab07edd23fb4fd95e117739f3c5c3b1cf062c1233b). Only cell-line names, model identifiers and OncoTree fields derived from that lookup are included here; no patient-level source fields are released.

Source terms and attribution

  • USPTO patent full-text XML is governed by the USPTO website terms. Patent text and drawings are typically not copyright-restricted, subject to the exceptions stated there; source patent identifiers are retained on every record.

  • DepMap Public 25Q3 is attributed to Broad DepMap and its source release terms. Broad-generated DepMap data is distributed under CC BY 4.0. ASO Atlas republishes only derived cell-line mapping fields.

  • The processed ASO Atlas 2.0 release is distributed under CC BY 4.0. Dataset publication does not grant permission to practise inventions claimed by active patents.

Processing

  1. HELM quality filtering: removed sequences with uncertain chemistry (?), length <11 nucleotides, missing DNA gap, homopolymers, or naked DNA
  2. Gene name standardisation via manual curated mappings
  3. Cell line standardisation and CCLE (Cancer Cell Line Encyclopedia) enrichment
  4. Inhibition values filtered to [-1000%, 100%]
  5. Hepatic biomarker values filtered to physiologically plausible ranges
  6. FOB scores validated to 0-7 range
  7. Deduplication by compound and measurement
  8. Rows without a resolvable HELM annotation are retained and marked model_eligible=false

Intended uses

The established uses are research benchmarking and exploratory model development for patent-derived ASO in vitro efficacy and preclinical toxicity endpoints. The supplied patent-grouped folds support reproducible, leakage-controlled evaluation. The measurements represent outcomes reported in patents, not independently replicated biological truth.

This dataset is not validated for clinical decision-making, prediction of human safety, dose selection, treatment selection, prospective laboratory deployment, legal conclusions, or generalisation to chemistries and organisations absent from the source patents.

Considerations

Biases

  • Patent bias: Data comes exclusively from pharmaceutical patent filings, which over-represent compound classes pursued by industry (predominantly 2'-MOE gapmers). Academic and early-stage chemistries may be underrepresented.
  • Single-originator bias: All filings come from one organisation, so quantities estimated from this corpus (pass rates, enrichment factors) bound to its chemistry and target choices rather than to ASO development in general.
  • Species bias: Mouse and rat data dominate; monkey and dog data are sparse.
  • Reporting bias: Patents report results selectively. Negative results may be underrepresented.

Limitations

  • No independent validation: All measurements originate from patent applicants' own experiments. Cross-laboratory reproducibility is unknown.
  • Extraction errors: LLM-based extraction may introduce errors. A validation audit is included in the accompanying code repository.
  • Heterogeneous protocols: Assay conditions (cell lines, doses, timepoints) vary across patents and are not standardised.
  • Unresolved chemistry: 4,166 assay readouts lack a resolvable HELM annotation and cannot be used directly in chemistry-aware models.

Ethical considerations

No human-subject records, patient-level health information or personally identifiable information are included. The release contains public patent assay records, compound structures, animal-study measurements and public CCLE cell-line identifiers. It contains no synthetic assay records: LLMs transformed source tables but were not permitted to generate measurement values directly.

Social impact

Potential benefits include more reproducible ASO model evaluation, lower screening costs and reduced animal use. Potential harms arise if extraction errors or the source patents' narrow chemistry and target distribution are treated as universally representative; this could misprioritise candidates or research areas. Version pinning, source identifiers, leakage-controlled folds, a validation audit and the non-clinical-use limits above reduce but do not eliminate those risks.

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