TPCI200_D_ERROR,
};
+static const size_t tpci200_space_size[IPACK_SPACE_COUNT] = {
+ [IPACK_IO_SPACE] = TPCI200_IO_SPACE_SIZE,
+ [IPACK_ID_SPACE] = TPCI200_ID_SPACE_SIZE,
+ [IPACK_INT_SPACE] = TPCI200_INT_SPACE_SIZE,
+ [IPACK_MEM_SPACE] = TPCI200_MEM8_SPACE_SIZE,
+};
+
+static const size_t tpci200_space_interval[IPACK_SPACE_COUNT] = {
+ [IPACK_IO_SPACE] = TPCI200_IO_SPACE_INTERVAL,
+ [IPACK_ID_SPACE] = TPCI200_ID_SPACE_INTERVAL,
+ [IPACK_INT_SPACE] = TPCI200_INT_SPACE_INTERVAL,
+ [IPACK_MEM_SPACE] = TPCI200_MEM8_SPACE_INTERVAL,
+};
+
static struct tpci200_board *check_slot(struct ipack_device *dev)
{
struct tpci200_board *tpci200;
static int tpci200_create_device(struct tpci200_board *tpci200, int i)
{
+ enum ipack_space space;
struct ipack_device *dev =
kzalloc(sizeof(struct ipack_device), GFP_KERNEL);
if (!dev)
dev->slot = i;
dev->bus = tpci200->info->ipack_bus;
dev->release = tpci200_release_device;
+
+ for (space = 0; space < IPACK_SPACE_COUNT; space++) {
+ dev->region[space].start =
+ tpci200->mod_mem[space]
+ + tpci200_space_interval[space] * i;
+ dev->region[space].size = tpci200_space_size[space];
+ }
return ipack_device_register(dev);
}
struct ipack_addr_space mem_space;
struct device dev;
void (*release) (struct ipack_device *dev);
+ struct ipack_region region[IPACK_SPACE_COUNT];
u8 *id;
size_t id_avail;
u32 id_vendor;
*
* Register a new IPack device ("module" in IndustryPack jargon). The call
* is done by the carrier driver. The carrier should populate the fields
- * bus and slot of @dev prior to calling this function. The rest of the
- * fields will be allocated and populated during registration.
+ * bus and slot as well as the region array of @dev prior to calling this
+ * function. The rest of the fields will be allocated and populated
+ * during registration.
*
* Return zero on success or error code on failure.
*/