.b123 = 2, \
.c1c = 3, \
.d00d = 4, \
+ .f10c = 0, \
}, \
.output_len = sizeof(struct core_reloc_arrays_output) \
}
ARRAYS_CASE(arrays),
ARRAYS_CASE(arrays___diff_arr_dim),
ARRAYS_CASE(arrays___diff_arr_val_sz),
+ ARRAYS_CASE(arrays___equiv_zero_sz_arr),
+ ARRAYS_CASE(arrays___fixed_arr),
ARRAYS_ERR_CASE(arrays___err_too_small),
ARRAYS_ERR_CASE(arrays___err_too_shallow),
ARRAYS_ERR_CASE(arrays___err_non_array),
ARRAYS_ERR_CASE(arrays___err_wrong_val_type1),
ARRAYS_ERR_CASE(arrays___err_wrong_val_type2),
+ ARRAYS_ERR_CASE(arrays___err_bad_zero_sz_arr),
/* enum/ptr/int handling scenarios */
PRIMITIVES_CASE(primitives),
char b123;
int c1c;
int d00d;
+ int f10c;
};
struct core_reloc_arrays_substruct {
char b[2][3][4];
struct core_reloc_arrays_substruct c[3];
struct core_reloc_arrays_substruct d[1][2];
+ struct core_reloc_arrays_substruct f[][2];
};
/* bigger array dimensions */
char b[3][4][5];
struct core_reloc_arrays_substruct c[4];
struct core_reloc_arrays_substruct d[2][3];
+ struct core_reloc_arrays_substruct f[1][3];
};
/* different size of array's value (struct) */
int d;
int __padding2;
} d[1][2];
+ struct {
+ int __padding1;
+ int c;
+ int __padding2;
+ } f[][2];
+};
+
+struct core_reloc_arrays___equiv_zero_sz_arr {
+ int a[5];
+ char b[2][3][4];
+ struct core_reloc_arrays_substruct c[3];
+ struct core_reloc_arrays_substruct d[1][2];
+ /* equivalent to flexible array */
+ struct core_reloc_arrays_substruct f[0][2];
+};
+
+struct core_reloc_arrays___fixed_arr {
+ int a[5];
+ char b[2][3][4];
+ struct core_reloc_arrays_substruct c[3];
+ struct core_reloc_arrays_substruct d[1][2];
+ /* not a flexible array anymore, but within access bounds */
+ struct core_reloc_arrays_substruct f[1][2];
};
struct core_reloc_arrays___err_too_small {
char b[2][3][4];
struct core_reloc_arrays_substruct c[3];
struct core_reloc_arrays_substruct d[1][2];
+ struct core_reloc_arrays_substruct f[][2];
};
struct core_reloc_arrays___err_too_shallow {
char b[2][3]; /* this one lacks one dimension */
struct core_reloc_arrays_substruct c[3];
struct core_reloc_arrays_substruct d[1][2];
+ struct core_reloc_arrays_substruct f[][2];
};
struct core_reloc_arrays___err_non_array {
char b[2][3][4];
struct core_reloc_arrays_substruct c[3];
struct core_reloc_arrays_substruct d[1][2];
+ struct core_reloc_arrays_substruct f[][2];
};
struct core_reloc_arrays___err_wrong_val_type {
char b[2][3][4];
int c[3]; /* value is not a struct */
struct core_reloc_arrays_substruct d[1][2];
+ struct core_reloc_arrays_substruct f[][2];
+};
+
+struct core_reloc_arrays___err_bad_zero_sz_arr {
+ /* zero-sized array, but not at the end */
+ struct core_reloc_arrays_substruct f[0][2];
+ int a[5];
+ char b[2][3][4];
+ struct core_reloc_arrays_substruct c[3];
+ struct core_reloc_arrays_substruct d[1][2];
};
/*
char b123;
int c1c;
int d00d;
+ int f01c;
};
struct core_reloc_arrays_substruct {
char b[2][3][4];
struct core_reloc_arrays_substruct c[3];
struct core_reloc_arrays_substruct d[1][2];
+ struct core_reloc_arrays_substruct f[][2];
};
#define CORE_READ(dst, src) bpf_core_read(dst, sizeof(*(dst)), src)
struct core_reloc_arrays *in = (void *)&data.in;
struct core_reloc_arrays_output *out = (void *)&data.out;
- /* in->a[2] */
if (CORE_READ(&out->a2, &in->a[2]))
return 1;
- /* in->b[1][2][3] */
if (CORE_READ(&out->b123, &in->b[1][2][3]))
return 1;
- /* in->c[1].c */
if (CORE_READ(&out->c1c, &in->c[1].c))
return 1;
- /* in->d[0][0].d */
if (CORE_READ(&out->d00d, &in->d[0][0].d))
return 1;
+ if (CORE_READ(&out->f01c, &in->f[0][1].c))
+ return 1;
return 0;
}