for (s = sechdrs; s < sechdrs_end; ++s) {
                if ((strcmp(".l1.text", secstrings + s->sh_name) == 0) ||
                    ((strcmp(".text", secstrings + s->sh_name) == 0) &&
-                    (hdr->e_flags & FLG_CODE_IN_L1) && (s->sh_size > 0))) {
+                    (hdr->e_flags & EF_BFIN_CODE_IN_L1) && (s->sh_size > 0))) {
                        dest = l1_inst_sram_alloc(s->sh_size);
                        mod->arch.text_l1 = dest;
                        if (dest == NULL) {
                }
                if ((strcmp(".l1.data", secstrings + s->sh_name) == 0) ||
                    ((strcmp(".data", secstrings + s->sh_name) == 0) &&
-                    (hdr->e_flags & FLG_DATA_IN_L1) && (s->sh_size > 0))) {
+                    (hdr->e_flags & EF_BFIN_DATA_IN_L1) && (s->sh_size > 0))) {
                        dest = l1_data_sram_alloc(s->sh_size);
                        mod->arch.data_a_l1 = dest;
                        if (dest == NULL) {
                }
                if (strcmp(".l1.bss", secstrings + s->sh_name) == 0 ||
                    ((strcmp(".bss", secstrings + s->sh_name) == 0) &&
-                    (hdr->e_flags & FLG_DATA_IN_L1) && (s->sh_size > 0))) {
+                    (hdr->e_flags & EF_BFIN_DATA_IN_L1) && (s->sh_size > 0))) {
                        dest = l1_data_sram_alloc(s->sh_size);
                        mod->arch.bss_a_l1 = dest;
                        if (dest == NULL) {
                        s->sh_flags &= ~SHF_ALLOC;
                        s->sh_addr = (unsigned long)dest;
                }
+               if ((strcmp(".l2.text", secstrings + s->sh_name) == 0) ||
+                   ((strcmp(".text", secstrings + s->sh_name) == 0) &&
+                    (hdr->e_flags & EF_BFIN_CODE_IN_L2) && (s->sh_size > 0))) {
+                       dest = l2_sram_alloc(s->sh_size);
+                       mod->arch.text_l2 = dest;
+                       if (dest == NULL) {
+                               printk(KERN_ERR
+                                      "module %s: L2 SRAM allocation failed\n",
+                                      mod->name);
+                               return -1;
+                       }
+                       memcpy(dest, (void *)s->sh_addr, s->sh_size);
+                       s->sh_flags &= ~SHF_ALLOC;
+                       s->sh_addr = (unsigned long)dest;
+               }
+               if ((strcmp(".l2.data", secstrings + s->sh_name) == 0) ||
+                   ((strcmp(".data", secstrings + s->sh_name) == 0) &&
+                    (hdr->e_flags & EF_BFIN_DATA_IN_L2) && (s->sh_size > 0))) {
+                       dest = l2_sram_alloc(s->sh_size);
+                       mod->arch.data_l2 = dest;
+                       if (dest == NULL) {
+                               printk(KERN_ERR
+                                       "module %s: L2 SRAM allocation failed\n",
+                                       mod->name);
+                               return -1;
+                       }
+                       memcpy(dest, (void *)s->sh_addr, s->sh_size);
+                       s->sh_flags &= ~SHF_ALLOC;
+                       s->sh_addr = (unsigned long)dest;
+               }
+               if (strcmp(".l2.bss", secstrings + s->sh_name) == 0 ||
+                   ((strcmp(".bss", secstrings + s->sh_name) == 0) &&
+                    (hdr->e_flags & EF_BFIN_DATA_IN_L2) && (s->sh_size > 0))) {
+                       dest = l2_sram_alloc(s->sh_size);
+                       mod->arch.bss_l2 = dest;
+                       if (dest == NULL) {
+                               printk(KERN_ERR
+                                       "module %s: L2 SRAM allocation failed\n",
+                                       mod->name);
+                               return -1;
+                       }
+                       memset(dest, 0, s->sh_size);
+                       s->sh_flags &= ~SHF_ALLOC;
+                       s->sh_addr = (unsigned long)dest;
+               }
        }
        return 0;
 }
                        continue;
 
                if ((sechdrs[i].sh_type == SHT_RELA) &&
-                   ((strcmp(".rela.l1.text", secstrings + sechdrs[i].sh_name) == 0) ||
+                   ((strcmp(".rela.l2.text", secstrings + sechdrs[i].sh_name) == 0) ||
+                   (strcmp(".rela.l1.text", secstrings + sechdrs[i].sh_name) == 0) ||
                    ((strcmp(".rela.text", secstrings + sechdrs[i].sh_name) == 0) &&
-                        (hdr->e_flags & FLG_CODE_IN_L1)))) {
+                       (hdr->e_flags & (EF_BFIN_CODE_IN_L1|EF_BFIN_CODE_IN_L2))))) {
                        apply_relocate_add((Elf_Shdr *) sechdrs, strtab,
                                           symindex, i, mod);
                }
 
 void module_arch_cleanup(struct module *mod)
 {
-       if (mod->arch.text_l1)
-               l1_inst_sram_free((void *)mod->arch.text_l1);
-       if (mod->arch.data_a_l1)
-               l1_data_sram_free((void *)mod->arch.data_a_l1);
-       if (mod->arch.bss_a_l1)
-               l1_data_sram_free((void *)mod->arch.bss_a_l1);
-       if (mod->arch.data_b_l1)
-               l1_data_B_sram_free((void *)mod->arch.data_b_l1);
-       if (mod->arch.bss_b_l1)
-               l1_data_B_sram_free((void *)mod->arch.bss_b_l1);
+       l1_inst_sram_free(mod->arch.text_l1);
+       l1_data_A_sram_free(mod->arch.data_a_l1);
+       l1_data_A_sram_free(mod->arch.bss_a_l1);
+       l1_data_B_sram_free(mod->arch.data_b_l1);
+       l1_data_B_sram_free(mod->arch.bss_b_l1);
+       l2_sram_free(mod->arch.text_l2);
+       l2_sram_free(mod->arch.data_l2);
+       l2_sram_free(mod->arch.bss_l2);
 }
 
 #include "blackfin_sram.h"
 
 static spinlock_t l1sram_lock, l1_data_sram_lock, l1_inst_sram_lock;
+static spinlock_t l2_sram_lock;
 
 /* the data structure for L1 scratchpad and DATA SRAM */
 struct sram_piece {
 static struct sram_piece free_l1_inst_sram_head, used_l1_inst_sram_head;
 #endif
 
+#ifdef L2_LENGTH
+static struct sram_piece free_l2_sram_head, used_l2_sram_head;
+#endif
+
 static struct kmem_cache *sram_piece_cache;
 
 /* L1 Scratchpad SRAM initialization function */
        free_l1_data_A_sram_head.next =
                kmem_cache_alloc(sram_piece_cache, GFP_KERNEL);
        if (!free_l1_data_A_sram_head.next) {
-               printk(KERN_INFO"Fail to initialize Data A SRAM.\n");
+               printk(KERN_INFO"Fail to initialize L1 Data A SRAM.\n");
                return;
        }
 
 
        used_l1_data_A_sram_head.next = NULL;
 
-       printk(KERN_INFO "Blackfin Data A SRAM: %d KB (%d KB free)\n",
+       printk(KERN_INFO "Blackfin L1 Data A SRAM: %d KB (%d KB free)\n",
                L1_DATA_A_LENGTH >> 10,
                free_l1_data_A_sram_head.next->size >> 10);
 #endif
        free_l1_data_B_sram_head.next =
                kmem_cache_alloc(sram_piece_cache, GFP_KERNEL);
        if (!free_l1_data_B_sram_head.next) {
-               printk(KERN_INFO"Fail to initialize Data B SRAM.\n");
+               printk(KERN_INFO"Fail to initialize L1 Data B SRAM.\n");
                return;
        }
 
 
        used_l1_data_B_sram_head.next = NULL;
 
-       printk(KERN_INFO "Blackfin Data B SRAM: %d KB (%d KB free)\n",
+       printk(KERN_INFO "Blackfin L1 Data B SRAM: %d KB (%d KB free)\n",
                L1_DATA_B_LENGTH >> 10,
                free_l1_data_B_sram_head.next->size >> 10);
 #endif
        free_l1_inst_sram_head.next =
                kmem_cache_alloc(sram_piece_cache, GFP_KERNEL);
        if (!free_l1_inst_sram_head.next) {
-               printk(KERN_INFO"Fail to initialize Instruction SRAM.\n");
+               printk(KERN_INFO"Fail to initialize L1 Instruction SRAM.\n");
                return;
        }
 
 
        used_l1_inst_sram_head.next = NULL;
 
-       printk(KERN_INFO "Blackfin Instruction SRAM: %d KB (%d KB free)\n",
+       printk(KERN_INFO "Blackfin L1 Instruction SRAM: %d KB (%d KB free)\n",
                L1_CODE_LENGTH >> 10,
                free_l1_inst_sram_head.next->size >> 10);
 #endif
        spin_lock_init(&l1_inst_sram_lock);
 }
 
+static void __init l2_sram_init(void)
+{
+#ifdef L2_LENGTH
+       free_l2_sram_head.next =
+               kmem_cache_alloc(sram_piece_cache, GFP_KERNEL);
+       if (!free_l2_sram_head.next) {
+               printk(KERN_INFO"Fail to initialize L2 SRAM.\n");
+               return;
+       }
+
+       free_l2_sram_head.next->paddr = (void *)L2_START +
+               (_etext_l2 - _stext_l2) + (_edata_l2 - _sdata_l2);
+       free_l2_sram_head.next->size = L2_LENGTH -
+               (_etext_l2 - _stext_l2) + (_edata_l2 - _sdata_l2);
+       free_l2_sram_head.next->pid = 0;
+       free_l2_sram_head.next->next = NULL;
+
+       used_l2_sram_head.next = NULL;
+
+       printk(KERN_INFO "Blackfin L2 SRAM: %d KB (%d KB free)\n",
+               L2_LENGTH >> 10,
+               free_l2_sram_head.next->size >> 10);
+#endif
+
+       /* mutex initialize */
+       spin_lock_init(&l2_sram_lock);
+}
 void __init bfin_sram_init(void)
 {
        sram_piece_cache = kmem_cache_create("sram_piece_cache",
        l1sram_init();
        l1_data_sram_init();
        l1_inst_sram_init();
+       l2_sram_init();
 }
 
-/* L1 memory allocate function */
-static void *_l1_sram_alloc(size_t size, struct sram_piece *pfree_head,
+/* SRAM allocate function */
+static void *_sram_alloc(size_t size, struct sram_piece *pfree_head,
                struct sram_piece *pused_head)
 {
        struct sram_piece *pslot, *plast, *pavail;
 }
 
 /* Allocate the largest available block.  */
-static void *_l1_sram_alloc_max(struct sram_piece *pfree_head,
+static void *_sram_alloc_max(struct sram_piece *pfree_head,
                                struct sram_piece *pused_head,
                                unsigned long *psize)
 {
 
        *psize = pmax->size;
 
-       return _l1_sram_alloc(*psize, pfree_head, pused_head);
+       return _sram_alloc(*psize, pfree_head, pused_head);
 }
 
-/* L1 memory free function */
-static int _l1_sram_free(const void *addr,
+/* SRAM free function */
+static int _sram_free(const void *addr,
                        struct sram_piece *pfree_head,
                        struct sram_piece *pused_head)
 {
        else if (addr >= (void *)L1_DATA_B_START
                 && addr < (void *)(L1_DATA_B_START + L1_DATA_B_LENGTH))
                return l1_data_B_sram_free(addr);
+#endif
+#ifdef L2_LENGTH
+       else if (addr >= (void *)L2_START
+                && addr < (void *)(L2_START + L2_LENGTH))
+               return l2_sram_free(addr);
 #endif
        else
                return -1;
        spin_lock_irqsave(&l1_data_sram_lock, flags);
 
 #if L1_DATA_A_LENGTH != 0
-       addr = _l1_sram_alloc(size, &free_l1_data_A_sram_head,
+       addr = _sram_alloc(size, &free_l1_data_A_sram_head,
                        &used_l1_data_A_sram_head);
 #endif
 
        spin_lock_irqsave(&l1_data_sram_lock, flags);
 
 #if L1_DATA_A_LENGTH != 0
-       ret = _l1_sram_free(addr, &free_l1_data_A_sram_head,
+       ret = _sram_free(addr, &free_l1_data_A_sram_head,
                        &used_l1_data_A_sram_head);
 #else
        ret = -1;
        /* add mutex operation */
        spin_lock_irqsave(&l1_data_sram_lock, flags);
 
-       addr = _l1_sram_alloc(size, &free_l1_data_B_sram_head,
+       addr = _sram_alloc(size, &free_l1_data_B_sram_head,
                        &used_l1_data_B_sram_head);
 
        /* add mutex operation */
        /* add mutex operation */
        spin_lock_irqsave(&l1_data_sram_lock, flags);
 
-       ret = _l1_sram_free(addr, &free_l1_data_B_sram_head,
+       ret = _sram_free(addr, &free_l1_data_B_sram_head,
                        &used_l1_data_B_sram_head);
 
        /* add mutex operation */
        /* add mutex operation */
        spin_lock_irqsave(&l1_inst_sram_lock, flags);
 
-       addr = _l1_sram_alloc(size, &free_l1_inst_sram_head,
+       addr = _sram_alloc(size, &free_l1_inst_sram_head,
                        &used_l1_inst_sram_head);
 
        /* add mutex operation */
        /* add mutex operation */
        spin_lock_irqsave(&l1_inst_sram_lock, flags);
 
-       ret = _l1_sram_free(addr, &free_l1_inst_sram_head,
+       ret = _sram_free(addr, &free_l1_inst_sram_head,
                        &used_l1_inst_sram_head);
 
        /* add mutex operation */
        /* add mutex operation */
        spin_lock_irqsave(&l1sram_lock, flags);
 
-       addr = _l1_sram_alloc(size, &free_l1_ssram_head,
+       addr = _sram_alloc(size, &free_l1_ssram_head,
                        &used_l1_ssram_head);
 
        /* add mutex operation */
        /* add mutex operation */
        spin_lock_irqsave(&l1sram_lock, flags);
 
-       addr = _l1_sram_alloc_max(&free_l1_ssram_head,
+       addr = _sram_alloc_max(&free_l1_ssram_head,
                        &used_l1_ssram_head, psize);
 
        /* add mutex operation */
        /* add mutex operation */
        spin_lock_irqsave(&l1sram_lock, flags);
 
-       ret = _l1_sram_free(addr, &free_l1_ssram_head,
+       ret = _sram_free(addr, &free_l1_ssram_head,
                        &used_l1_ssram_head);
 
        /* add mutex operation */
        return ret;
 }
 
+void *l2_sram_alloc(size_t size)
+{
+#ifdef L2_LENGTH
+       unsigned flags;
+       void *addr;
+
+       /* add mutex operation */
+       spin_lock_irqsave(&l2_sram_lock, flags);
+
+       addr = _sram_alloc(size, &free_l2_sram_head,
+                       &used_l2_sram_head);
+
+       /* add mutex operation */
+       spin_unlock_irqrestore(&l2_sram_lock, flags);
+
+       pr_debug("Allocated address in l2_sram_alloc is 0x%lx+0x%lx\n",
+                (long unsigned int)addr, size);
+
+       return addr;
+#else
+       return NULL;
+#endif
+}
+EXPORT_SYMBOL(l2_sram_alloc);
+
+void *l2_sram_zalloc(size_t size)
+{
+       void *addr = l2_sram_alloc(size);
+
+       if (addr)
+               memset(addr, 0x00, size);
+
+       return addr;
+}
+EXPORT_SYMBOL(l2_sram_zalloc);
+
+int l2_sram_free(const void *addr)
+{
+#ifdef L2_LENGTH
+       unsigned flags;
+       int ret;
+
+       /* add mutex operation */
+       spin_lock_irqsave(&l2_sram_lock, flags);
+
+       ret = _sram_free(addr, &free_l2_sram_head,
+                       &used_l2_sram_head);
+
+       /* add mutex operation */
+       spin_unlock_irqrestore(&l2_sram_lock, flags);
+
+       return ret;
+#else
+       return -1;
+#endif
+}
+EXPORT_SYMBOL(l2_sram_free);
+
 int sram_free_with_lsl(const void *addr)
 {
        struct sram_list_struct *lsl, **tmp;
        if (addr == NULL && (flags & L1_DATA_B_SRAM))
                addr = l1_data_B_sram_alloc(size);
 
+       if (addr == NULL && (flags & L2_SRAM))
+               addr = l2_sram_alloc(size);
+
        if (addr == NULL) {
                kfree(lsl);
                return NULL;
 /* Need to keep line of output the same.  Currently, that is 44 bytes
  * (including newline).
  */
-static int _l1sram_proc_read(char *buf, int *len, int count, const char *desc,
+static int _sram_proc_read(char *buf, int *len, int count, const char *desc,
                struct sram_piece *pfree_head,
                struct sram_piece *pused_head)
 {
        if (!pfree_head || !pused_head)
                return -1;
 
-       *len += sprintf(&buf[*len], "--- L1 %-14s Size   PID State     \n", desc);
+       *len += sprintf(&buf[*len], "--- SRAM %-14s Size   PID State     \n", desc);
 
        /* search the relevant memory slot */
        pslot = pused_head->next;
 
        while (pslot != NULL) {
-               *len += sprintf(&buf[*len], "%p-%p %8i %5i %-10s\n",
+               *len += sprintf(&buf[*len], "%p-%p %10i %5i %-10s\n",
                        pslot->paddr, pslot->paddr + pslot->size,
                        pslot->size, pslot->pid, "ALLOCATED");
 
        pslot = pfree_head->next;
 
        while (pslot != NULL) {
-               *len += sprintf(&buf[*len], "%p-%p %8i %5i %-10s\n",
+               *len += sprintf(&buf[*len], "%p-%p %10i %5i %-10s\n",
                        pslot->paddr, pslot->paddr + pslot->size,
                        pslot->size, pslot->pid, "FREE");
 
 
        return 0;
 }
-static int l1sram_proc_read(char *buf, char **start, off_t offset, int count,
+static int sram_proc_read(char *buf, char **start, off_t offset, int count,
                int *eof, void *data)
 {
        int len = 0;
 
-       if (_l1sram_proc_read(buf, &len, count, "Scratchpad",
+       if (_sram_proc_read(buf, &len, count, "Scratchpad",
                        &free_l1_ssram_head, &used_l1_ssram_head))
                goto not_done;
 #if L1_DATA_A_LENGTH != 0
-       if (_l1sram_proc_read(buf, &len, count, "Data A",
+       if (_sram_proc_read(buf, &len, count, "L1 Data A",
                        &free_l1_data_A_sram_head,
                        &used_l1_data_A_sram_head))
                goto not_done;
 #endif
 #if L1_DATA_B_LENGTH != 0
-       if (_l1sram_proc_read(buf, &len, count, "Data B",
+       if (_sram_proc_read(buf, &len, count, "L1 Data B",
                        &free_l1_data_B_sram_head,
                        &used_l1_data_B_sram_head))
                goto not_done;
 #endif
 #if L1_CODE_LENGTH != 0
-       if (_l1sram_proc_read(buf, &len, count, "Instruction",
+       if (_sram_proc_read(buf, &len, count, "L1 Instruction",
                        &free_l1_inst_sram_head, &used_l1_inst_sram_head))
                goto not_done;
 #endif
+#ifdef L2_LENGTH
+       if (_sram_proc_read(buf, &len, count, "L2",
+                       &free_l2_sram_head, &used_l2_sram_head))
+               goto not_done;
+#endif
 
        *eof = 1;
  not_done:
        return len;
 }
 
-static int __init l1sram_proc_init(void)
+static int __init sram_proc_init(void)
 {
        struct proc_dir_entry *ptr;
        ptr = create_proc_entry("sram", S_IFREG | S_IRUGO, NULL);
                return -1;
        }
        ptr->owner = THIS_MODULE;
-       ptr->read_proc = l1sram_proc_read;
+       ptr->read_proc = sram_proc_read;
        return 0;
 }
-late_initcall(l1sram_proc_init);
+late_initcall(sram_proc_init);
 #endif