#define _SPU_H
#ifdef __KERNEL__
-#include <linux/kref.h>
#include <linux/workqueue.h>
+#include <linux/sysdev.h>
#define LS_SIZE (256 * 1024)
#define LS_ADDR_MASK (LS_SIZE - 1)
struct spu_runqueue;
struct spu {
- char *name;
+ const char *name;
unsigned long local_store_phys;
u8 *local_store;
unsigned long problem_phys;
struct list_head sched_list;
int number;
int nid;
+ unsigned int irqs[3];
u32 isrc;
u32 node;
u64 flags;
u64 dar;
u64 dsisr;
- struct kref kref;
size_t ls_size;
unsigned int slb_replace;
struct mm_struct *mm;
int class_0_pending;
spinlock_t register_lock;
- u32 stop_code;
void (* wbox_callback)(struct spu *spu);
void (* ibox_callback)(struct spu *spu);
void (* stop_callback)(struct spu *spu);
void (* mfc_callback)(struct spu *spu);
+ void (* dma_callback)(struct spu *spu, int type);
char irq_c0[8];
char irq_c1[8];
char irq_c2[8];
+
+ struct sys_device sysdev;
};
struct spu *spu_alloc(void);
+struct spu *spu_alloc_node(int node);
void spu_free(struct spu *spu);
int spu_irq_class_0_bottom(struct spu *spu);
int spu_irq_class_1_bottom(struct spu *spu);
struct module *owner;
} spufs_calls;
+/* return status from spu_run, same as in libspe */
+#define SPE_EVENT_DMA_ALIGNMENT 0x0008 /*A DMA alignment error */
+#define SPE_EVENT_SPE_ERROR 0x0010 /*An illegal instruction error*/
+#define SPE_EVENT_SPE_DATA_SEGMENT 0x0020 /*A DMA segmentation error */
+#define SPE_EVENT_SPE_DATA_STORAGE 0x0040 /*A DMA storage error */
+#define SPE_EVENT_INVALID_DMA 0x0800 /* Invalid MFC DMA */
+
+/*
+ * Flags for sys_spu_create.
+ */
+#define SPU_CREATE_EVENTS_ENABLED 0x0001
+#define SPU_CREATE_GANG 0x0002
+
+#define SPU_CREATE_FLAG_ALL 0x0003 /* mask of all valid flags */
+
+
#ifdef CONFIG_SPU_FS_MODULE
int register_spu_syscalls(struct spufs_calls *calls);
void unregister_spu_syscalls(struct spufs_calls *calls);
#endif /* MODULE */
-/* access to priv1 registers */
-void spu_int_mask_and(struct spu *spu, int class, u64 mask);
-void spu_int_mask_or(struct spu *spu, int class, u64 mask);
-void spu_int_mask_set(struct spu *spu, int class, u64 mask);
-u64 spu_int_mask_get(struct spu *spu, int class);
-void spu_int_stat_clear(struct spu *spu, int class, u64 stat);
-u64 spu_int_stat_get(struct spu *spu, int class);
-void spu_int_route_set(struct spu *spu, u64 route);
-u64 spu_mfc_dar_get(struct spu *spu);
-u64 spu_mfc_dsisr_get(struct spu *spu);
-void spu_mfc_dsisr_set(struct spu *spu, u64 dsisr);
-void spu_mfc_sdr_set(struct spu *spu, u64 sdr);
-void spu_mfc_sr1_set(struct spu *spu, u64 sr1);
-u64 spu_mfc_sr1_get(struct spu *spu);
-void spu_mfc_tclass_id_set(struct spu *spu, u64 tclass_id);
-u64 spu_mfc_tclass_id_get(struct spu *spu);
-void spu_tlb_invalidate(struct spu *spu);
-void spu_resource_allocation_groupID_set(struct spu *spu, u64 id);
-u64 spu_resource_allocation_groupID_get(struct spu *spu);
-void spu_resource_allocation_enable_set(struct spu *spu, u64 enable);
-u64 spu_resource_allocation_enable_get(struct spu *spu);
-
+/*
+ * Notifier blocks:
+ *
+ * oprofile can get notified when a context switch is performed
+ * on an spe. The notifer function that gets called is passed
+ * a pointer to the SPU structure as well as the object-id that
+ * identifies the binary running on that SPU now.
+ *
+ * For a context save, the object-id that is passed is zero,
+ * identifying that the kernel will run from that moment on.
+ *
+ * For a context restore, the object-id is the value written
+ * to object-id spufs file from user space and the notifer
+ * function can assume that spu->ctx is valid.
+ */
+int spu_switch_event_register(struct notifier_block * n);
+int spu_switch_event_unregister(struct notifier_block * n);
/*
* This defines the Local Store, Problem Area and Privlege Area of an SPU.