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src
stan
gm
function_signatures.hpp
Go to the documentation of this file.
1
// included from constructor for function_signatures() in src/stan/gm/ast.hpp
2
3
std::vector<expr_type>
vector_types
;
4
vector_types
.push_back(
DOUBLE_T
);
// scalar
5
vector_types
.push_back(expr_type(
DOUBLE_T
,1U));
// std vector
6
vector_types
.push_back(
VECTOR_T
);
// Eigen vector
7
vector_types
.push_back(
ROW_VECTOR_T
);
// Eigen row vector
8
9
10
add_unary
(
"abs"
);
11
add
(
"abs"
,
INT_T
,
INT_T
);
12
add_unary
(
"acos"
);
13
add_unary
(
"acosh"
);
14
add
(
"add"
,
VECTOR_T
,
VECTOR_T
,
VECTOR_T
);
15
add
(
"add"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
16
add
(
"add"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
17
add
(
"add"
,
VECTOR_T
,
VECTOR_T
,
DOUBLE_T
);
18
add
(
"add"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
DOUBLE_T
);
19
add
(
"add"
,
MATRIX_T
,
MATRIX_T
,
DOUBLE_T
);
20
add
(
"add"
,
VECTOR_T
,
DOUBLE_T
,
VECTOR_T
);
21
add
(
"add"
,
ROW_VECTOR_T
,
DOUBLE_T
,
ROW_VECTOR_T
);
22
add
(
"add"
,
MATRIX_T
,
DOUBLE_T
,
MATRIX_T
);
23
add_unary
(
"asin"
);
24
add_unary
(
"asinh"
);
25
add_unary
(
"atan"
);
26
add_binary
(
"atan2"
);
27
add_unary
(
"atanh"
);
28
for
(
size_t
i = 0; i <
vector_types
.size(); ++i) {
29
add
(
"bernoulli_log"
,
DOUBLE_T
,
INT_T
,
vector_types
[i]);
30
add
(
"bernoulli_log"
,
DOUBLE_T
,expr_type(
INT_T
,1U),
vector_types
[i]);
31
}
32
for
(
size_t
i = 0; i <
vector_types
.size(); ++i) {
33
add
(
"bernoulli_logit_log"
,
DOUBLE_T
,
INT_T
,
vector_types
[i]);
34
add
(
"bernoulli_logit_log"
,
DOUBLE_T
,expr_type(
INT_T
,1U),
vector_types
[i]);
35
}
36
add
(
"beta_binomial_log"
,
DOUBLE_T
,
INT_T
,
INT_T
,
DOUBLE_T
,
DOUBLE_T
);
37
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
38
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
39
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
40
add
(
"beta_log"
,
41
DOUBLE_T
,
// result
42
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
43
add
(
"binary_log_loss"
,
DOUBLE_T
,
INT_T
,
DOUBLE_T
);
44
add_binary
(
"binomial_coefficient_log"
);
45
add
(
"binomial_log"
,
DOUBLE_T
,
INT_T
,
INT_T
,
DOUBLE_T
);
46
add
(
"categorical_log"
,
DOUBLE_T
,
INT_T
,
VECTOR_T
);
47
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
48
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
49
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
50
add
(
"cauchy_log"
,
51
DOUBLE_T
,
// result
52
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
53
add_unary
(
"cbrt"
);
54
add_unary
(
"ceil"
);
55
add
(
"cholesky_decompose"
,
MATRIX_T
,
MATRIX_T
);
56
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
57
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
58
add
(
"chi_square_log"
,
59
DOUBLE_T
,
// result
60
vector_types
[i],
vector_types
[j]);
// args
61
add
(
"col"
,
VECTOR_T
,
MATRIX_T
,
INT_T
);
62
add
(
"cols"
,
INT_T
,
VECTOR_T
);
63
add
(
"cols"
,
INT_T
,
ROW_VECTOR_T
);
64
add
(
"cols"
,
INT_T
,
MATRIX_T
);
65
add_unary
(
"cos"
);
66
add_unary
(
"cosh"
);
67
add
(
"determinant"
,
DOUBLE_T
,
MATRIX_T
);
68
add
(
"diagonal"
,
VECTOR_T
,
MATRIX_T
);
69
add
(
"diag_matrix"
,
MATRIX_T
,
VECTOR_T
);
70
add
(
"dirichlet_log"
,
DOUBLE_T
,
VECTOR_T
,
VECTOR_T
);
71
add
(
"divide"
,
DOUBLE_T
,
DOUBLE_T
,
DOUBLE_T
);
72
add
(
"divide"
,
VECTOR_T
,
VECTOR_T
,
DOUBLE_T
);
73
add
(
"divide"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
DOUBLE_T
);
74
add
(
"divide"
,
MATRIX_T
,
MATRIX_T
,
DOUBLE_T
);
75
add
(
"dot_product"
,
DOUBLE_T
,
VECTOR_T
,
VECTOR_T
);
76
add
(
"dot_product"
,
DOUBLE_T
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
77
add
(
"dot_product"
,
DOUBLE_T
,
VECTOR_T
,
ROW_VECTOR_T
);
78
add
(
"dot_product"
,
DOUBLE_T
,
ROW_VECTOR_T
,
VECTOR_T
);
79
add
(
"dot_product"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1U),expr_type(
DOUBLE_T
,1U));
// vectorized
80
add
(
"dot_self"
,
DOUBLE_T
,
VECTOR_T
);
81
add
(
"dot_self"
,
DOUBLE_T
,
ROW_VECTOR_T
);
82
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
83
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
84
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
85
add
(
"double_exponential_log"
,
86
DOUBLE_T
,
// result
87
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
88
add_nullary(
"e"
);
89
add
(
"eigenvalues"
,
VECTOR_T
,
MATRIX_T
);
90
add
(
"eigenvalues_sym"
,
VECTOR_T
,
MATRIX_T
);
91
add
(
"eigenvectors"
,
MATRIX_T
,
MATRIX_T
);
92
add
(
"eigenvectors_sym"
,
MATRIX_T
,
MATRIX_T
);
93
add
(
"elt_divide"
,
VECTOR_T
,
VECTOR_T
,
VECTOR_T
);
94
add
(
"elt_divide"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
95
add
(
"elt_divide"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
96
add
(
"elt_multiply"
,
VECTOR_T
,
VECTOR_T
,
VECTOR_T
);
97
add
(
"elt_multiply"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
98
add
(
"elt_multiply"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
99
add_nullary(
"epsilon"
);
100
add_unary
(
"erf"
);
101
add_unary
(
"erfc"
);
102
add_unary
(
"exp"
);
103
add
(
"exp"
,
VECTOR_T
,
VECTOR_T
);
104
add
(
"exp"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
105
add
(
"exp"
,
MATRIX_T
,
MATRIX_T
);
106
add_unary
(
"exp2"
);
107
add_unary
(
"expm1"
);
108
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
109
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
110
add
(
"exponential_log"
,
111
DOUBLE_T
,
// result
112
vector_types
[i],
vector_types
[j]);
// args
113
add_binary
(
"exponential_cdf"
);
114
add_unary
(
"fabs"
);
115
add_binary
(
"fdim"
);
116
add_unary
(
"floor"
);
117
add_ternary(
"fma"
);
118
add_binary
(
"fmax"
);
119
add_binary
(
"fmin"
);
120
add_binary
(
"fmod"
);
121
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
122
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
123
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
124
add
(
"gamma_log"
,
125
DOUBLE_T
,
// result
126
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
127
//FIXME: add_ternary("gamma_cdf");
128
add
(
"hypergeometric_log"
,
DOUBLE_T
,
INT_T
,
INT_T
,
INT_T
,
INT_T
);
129
add_binary
(
"hypot"
);
130
add
(
"if_else"
,
DOUBLE_T
,
INT_T
,
DOUBLE_T
,
DOUBLE_T
);
131
add
(
"int_step"
,
INT_T
,
DOUBLE_T
);
132
add
(
"int_step"
,
INT_T
,
INT_T
);
133
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
134
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
135
add
(
"inv_chi_square_log"
,
136
DOUBLE_T
,
// result
137
vector_types
[i],
vector_types
[j]);
// args
138
add_unary
(
"inv_cloglog"
);
139
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
140
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
141
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
142
add
(
"inv_gamma_log"
,
143
DOUBLE_T
,
// result
144
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
145
add_unary
(
"inv_logit"
);
146
add
(
"inv_wishart_log"
,
DOUBLE_T
,
MATRIX_T
,
DOUBLE_T
,
MATRIX_T
);
147
add
(
"inverse"
,
MATRIX_T
,
MATRIX_T
);
148
add_binary
(
"lbeta"
);
149
add_unary
(
"lgamma"
);
150
add
(
"lkj_corr_cholesky_log"
,
DOUBLE_T
,
MATRIX_T
,
DOUBLE_T
);
151
add
(
"lkj_corr_log"
,
DOUBLE_T
,
MATRIX_T
,
DOUBLE_T
);
152
add
(
"lkj_cov_log"
,
DOUBLE_T
,
MATRIX_T
,
VECTOR_T
,
VECTOR_T
,
DOUBLE_T
);
153
add
(
"lmgamma"
,
DOUBLE_T
,
INT_T
,
DOUBLE_T
);
154
add_unary
(
"log"
);
155
add
(
"log"
,
VECTOR_T
,
VECTOR_T
);
156
add
(
"log"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
157
add
(
"log"
,
MATRIX_T
,
MATRIX_T
);
158
add
(
"log_sum_exp"
,
DOUBLE_T
, expr_type(
DOUBLE_T
,1U));
159
add_binary
(
"log_sum_exp"
);
160
add_nullary(
"log10"
);
161
add_unary
(
"log10"
);
162
add_unary
(
"log1m"
);
163
add_unary
(
"log1p"
);
164
add_unary
(
"log1p_exp"
);
165
add_nullary(
"log2"
);
166
add_unary
(
"log2"
);
167
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
168
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
169
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
170
add
(
"logistic_log"
,
171
DOUBLE_T
,
// result
172
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
173
add_unary
(
"logit"
);
174
add_ternary(
"lognormal_cdf"
);
175
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
176
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
177
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
178
add
(
"lognormal_log"
,
179
DOUBLE_T
,
// result
180
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
181
add
(
"max"
,
INT_T
,expr_type(
INT_T
,1));
182
add
(
"max"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1));
183
add
(
"max"
,
DOUBLE_T
,
VECTOR_T
);
184
add
(
"max"
,
DOUBLE_T
,
ROW_VECTOR_T
);
185
add
(
"max"
,
DOUBLE_T
,
MATRIX_T
);
186
add
(
"max"
,
INT_T
,
INT_T
,
INT_T
);
187
add
(
"mdivide_left"
,
VECTOR_T
,
MATRIX_T
,
VECTOR_T
);
188
add
(
"mdivide_left"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
189
add
(
"mdivide_right"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
MATRIX_T
);
190
add
(
"mdivide_right"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
191
add
(
"mdivide_left_tri_low"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
192
add
(
"mdivide_left_tri_low"
,
VECTOR_T
,
MATRIX_T
,
VECTOR_T
);
193
add
(
"mdivide_right_tri_low"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
MATRIX_T
);
194
add
(
"mdivide_right_tri_low"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
195
add
(
"mean"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1));
196
add
(
"mean"
,
DOUBLE_T
,
VECTOR_T
);
197
add
(
"mean"
,
DOUBLE_T
,
ROW_VECTOR_T
);
198
add
(
"mean"
,
DOUBLE_T
,
MATRIX_T
);
199
add
(
"min"
,
INT_T
,expr_type(
INT_T
,1));
200
add
(
"min"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1));
201
add
(
"min"
,
DOUBLE_T
,
VECTOR_T
);
202
add
(
"min"
,
DOUBLE_T
,
ROW_VECTOR_T
);
203
add
(
"min"
,
DOUBLE_T
,
MATRIX_T
);
204
add
(
"min"
,
INT_T
,
INT_T
,
INT_T
);
205
add
(
"minus"
,
DOUBLE_T
,
DOUBLE_T
);
206
add
(
"minus"
,
VECTOR_T
,
VECTOR_T
);
207
add
(
"minus"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
208
add
(
"minus"
,
MATRIX_T
,
MATRIX_T
);
209
add
(
"multi_normal_cholesky_log"
,
DOUBLE_T
,
VECTOR_T
,
VECTOR_T
,
MATRIX_T
);
210
add
(
"multi_normal_log"
,
DOUBLE_T
,
VECTOR_T
,
VECTOR_T
,
MATRIX_T
);
211
add
(
"multi_student_t_log"
,
DOUBLE_T
,
VECTOR_T
,
DOUBLE_T
,
VECTOR_T
,
MATRIX_T
);
212
add
(
"multinomial_log"
,
DOUBLE_T
, expr_type(
INT_T
,1U),
VECTOR_T
);
213
add
(
"multiply"
,
DOUBLE_T
,
DOUBLE_T
,
DOUBLE_T
);
214
add
(
"multiply"
,
VECTOR_T
,
VECTOR_T
,
DOUBLE_T
);
215
add
(
"multiply"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
DOUBLE_T
);
216
add
(
"multiply"
,
MATRIX_T
,
MATRIX_T
,
DOUBLE_T
);
217
add
(
"multiply"
,
DOUBLE_T
,
ROW_VECTOR_T
,
VECTOR_T
);
218
add
(
"multiply"
,
MATRIX_T
,
VECTOR_T
,
ROW_VECTOR_T
);
219
add
(
"multiply"
,
VECTOR_T
,
MATRIX_T
,
VECTOR_T
);
220
add
(
"multiply"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
MATRIX_T
);
221
add
(
"multiply"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
222
add
(
"multiply"
,
VECTOR_T
,
DOUBLE_T
,
VECTOR_T
);
223
add
(
"multiply"
,
ROW_VECTOR_T
,
DOUBLE_T
,
ROW_VECTOR_T
);
224
add
(
"multiply"
,
MATRIX_T
,
DOUBLE_T
,
MATRIX_T
);
225
add
(
"multiply_lower_tri_self_transpose"
,
MATRIX_T
,
MATRIX_T
);
226
add
(
"tcrossprod"
,
MATRIX_T
,
MATRIX_T
);
227
add
(
"crossprod"
,
MATRIX_T
,
MATRIX_T
);
228
add_binary
(
"multiply_log"
);
229
add
(
"neg_binomial_log"
,
DOUBLE_T
,
INT_T
,
DOUBLE_T
,
DOUBLE_T
);
230
add_nullary(
"negative_epsilon"
);
231
add_nullary(
"negative_infinity"
);
232
add_ternary(
"normal_cdf"
);
// not vectorizing yet!
233
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
234
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
235
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
236
add
(
"normal_log"
,
237
DOUBLE_T
,
// result
238
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
239
add_nullary(
"not_a_number"
);
240
add
(
"ordered_logistic_log"
,
DOUBLE_T
,
INT_T
,
DOUBLE_T
,
VECTOR_T
);
241
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
242
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
243
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
244
add
(
"pareto_log"
,
245
DOUBLE_T
,
// result
246
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
247
add_unary
(
"Phi"
);
248
add_nullary(
"pi"
);
249
add
(
"poisson_log"
,
DOUBLE_T
,
INT_T
,
DOUBLE_T
);
250
add_nullary(
"positive_infinity"
);
251
add_binary
(
"pow"
);
252
253
add
(
"prod"
,
INT_T
,expr_type(
INT_T
,1));
254
add
(
"prod"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1));
255
add
(
"prod"
,
DOUBLE_T
,
VECTOR_T
);
256
add
(
"prod"
,
DOUBLE_T
,
ROW_VECTOR_T
);
257
add
(
"prod"
,
DOUBLE_T
,
MATRIX_T
);
258
add_unary
(
"round"
);
259
add
(
"row"
,
ROW_VECTOR_T
,
MATRIX_T
,
INT_T
);
260
add
(
"rows"
,
INT_T
,
VECTOR_T
);
261
add
(
"rows"
,
INT_T
,
ROW_VECTOR_T
);
262
add
(
"rows"
,
INT_T
,
MATRIX_T
);
263
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
264
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
265
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
266
add
(
"scaled_inv_chi_square_log"
,
267
DOUBLE_T
,
// result
268
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
269
add
(
"sd"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1));
270
add
(
"sd"
,
DOUBLE_T
,
VECTOR_T
);
271
add
(
"sd"
,
DOUBLE_T
,
ROW_VECTOR_T
);
272
add
(
"sd"
,
DOUBLE_T
,
MATRIX_T
);
273
add_unary
(
"sin"
);
274
add
(
"singular_values"
,
VECTOR_T
,
MATRIX_T
);
275
add_unary
(
"sinh"
);
276
add
(
"softmax"
,
VECTOR_T
,
VECTOR_T
);
277
add_unary
(
"sqrt"
);
278
add_nullary(
"sqrt2"
);
279
add_unary
(
"square"
);
280
add_unary
(
"step"
);
281
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
282
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
283
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
284
for
(
size_t
l = 0; l <
vector_types
.size(); ++l)
285
add
(
"student_t_log"
,
286
DOUBLE_T
,
// result
287
vector_types
[i],
vector_types
[j],
vector_types
[k],
vector_types
[l]);
// args
288
add
(
"subtract"
,
VECTOR_T
,
VECTOR_T
,
VECTOR_T
);
289
add
(
"subtract"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
ROW_VECTOR_T
);
290
add
(
"subtract"
,
MATRIX_T
,
MATRIX_T
,
MATRIX_T
);
291
add
(
"subtract"
,
VECTOR_T
,
VECTOR_T
,
DOUBLE_T
);
292
add
(
"subtract"
,
ROW_VECTOR_T
,
ROW_VECTOR_T
,
DOUBLE_T
);
293
add
(
"subtract"
,
MATRIX_T
,
MATRIX_T
,
DOUBLE_T
);
294
add
(
"subtract"
,
VECTOR_T
,
DOUBLE_T
,
VECTOR_T
);
295
add
(
"subtract"
,
ROW_VECTOR_T
,
DOUBLE_T
,
ROW_VECTOR_T
);
296
add
(
"subtract"
,
MATRIX_T
,
DOUBLE_T
,
MATRIX_T
);
297
add
(
"sum"
,
INT_T
,expr_type(
INT_T
,1));
298
add
(
"sum"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1));
299
add
(
"sum"
,
DOUBLE_T
,
VECTOR_T
);
300
add
(
"sum"
,
DOUBLE_T
,
ROW_VECTOR_T
);
301
add
(
"sum"
,
DOUBLE_T
,
MATRIX_T
);
302
add_unary
(
"tan"
);
303
add_unary
(
"tanh"
);
304
add_unary
(
"tgamma"
);
305
add
(
"trace"
,
DOUBLE_T
,
MATRIX_T
);
306
add
(
"transpose"
,
ROW_VECTOR_T
,
VECTOR_T
);
307
add
(
"transpose"
,
VECTOR_T
,
ROW_VECTOR_T
);
308
add
(
"transpose"
,
MATRIX_T
,
MATRIX_T
);
309
add_unary
(
"trunc"
);
310
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
311
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
312
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
313
add
(
"uniform_log"
,
314
DOUBLE_T
,
// result
315
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
316
add
(
"variance"
,
DOUBLE_T
,expr_type(
DOUBLE_T
,1));
317
add
(
"variance"
,
DOUBLE_T
,
VECTOR_T
);
318
add
(
"variance"
,
DOUBLE_T
,
ROW_VECTOR_T
);
319
add
(
"variance"
,
DOUBLE_T
,
MATRIX_T
);
320
for
(
size_t
i = 0; i <
vector_types
.size(); ++i)
321
for
(
size_t
j = 0; j <
vector_types
.size(); ++j)
322
for
(
size_t
k = 0; k <
vector_types
.size(); ++k)
323
add
(
"weibull_log"
,
324
DOUBLE_T
,
// result
325
vector_types
[i],
vector_types
[j],
vector_types
[k]);
// args
326
add_ternary(
"weibull_cdf"
);
327
add
(
"wishart_log"
,
DOUBLE_T
,
MATRIX_T
,
DOUBLE_T
,
MATRIX_T
);
328
329
//------------------------------------------------------------
330
331
add
(
"trunc_normal_log"
,
DOUBLE_T
,
DOUBLE_T
,
DOUBLE_T
,
DOUBLE_T
,
DOUBLE_T
,
DOUBLE_T
);
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