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/*

 * Linux driver for Disk-On-Chip Millennium

 * (c) 1999 Machine Vision Holdings, Inc.

 * (c) 1999, 2000 David Woodhouse <dwmw2@infradead.org>

 *

 * $Id: doc2001.c,v 1.1.1.1 2004-04-15 01:52:03 phoenix Exp $

 */

#include <linux/kernel.h>

#include <linux/module.h>

#include <asm/errno.h>

#include <asm/io.h>

#include <asm/uaccess.h>

#include <linux/miscdevice.h>

#include <linux/pci.h>

#include <linux/delay.h>

#include <linux/slab.h>

#include <linux/sched.h>

#include <linux/init.h>

#include <linux/types.h>

#include <linux/mtd/mtd.h>

#include <linux/mtd/nand.h>

#include <linux/mtd/doc2000.h>

/* #define ECC_DEBUG */

/* I have no idea why some DoC chips can not use memcop_form|to_io().

 * This may be due to the different revisions of the ASIC controller built-in or

 * simplily a QA/Bug issue. Who knows ?? If you have trouble, please uncomment

 * this:*/

#undef USE_MEMCPY

static int doc_read(struct mtd_info *mtd, loff_t from, size_t len,

                    size_t *retlen, u_char *buf);

static int doc_write(struct mtd_info *mtd, loff_t to, size_t len,

                     size_t *retlen, const u_char *buf);

static int doc_read_ecc(struct mtd_info *mtd, loff_t from, size_t len,

                        size_t *retlen, u_char *buf, u_char *eccbuf, int oobsel);

static int doc_write_ecc(struct mtd_info *mtd, loff_t to, size_t len,

                         size_t *retlen, const u_char *buf, u_char *eccbuf, int oobsel);

static int doc_read_oob(struct mtd_info *mtd, loff_t ofs, size_t len,

                        size_t *retlen, u_char *buf);

static int doc_write_oob(struct mtd_info *mtd, loff_t ofs, size_t len,

                         size_t *retlen, const u_char *buf);

static int doc_erase (struct mtd_info *mtd, struct erase_info *instr);

static struct mtd_info *docmillist = NULL;

/* Perform the required delay cycles by reading from the NOP register */

static void DoC_Delay(unsigned long docptr, unsigned short cycles)

{

        volatile char dummy;

        int i;

        for (i = 0; i < cycles; i++)

                dummy = ReadDOC(docptr, NOP);

}

/* DOC_WaitReady: Wait for RDY line to be asserted by the flash chip */

static int _DoC_WaitReady(unsigned long docptr)

{

        unsigned short c = 0xffff;

        DEBUG(MTD_DEBUG_LEVEL3,

              "_DoC_WaitReady called for out-of-line wait\n");

        /* Out-of-line routine to wait for chip response */

        while (!(ReadDOC(docptr, CDSNControl) & CDSN_CTRL_FR_B) && --c)

                ;

        if (c == 0)

                DEBUG(MTD_DEBUG_LEVEL2, "_DoC_WaitReady timed out.\n");

        return (c == 0);

}

static inline int DoC_WaitReady(unsigned long docptr)

{

        /* This is inline, to optimise the common case, where it's ready instantly */

        int ret = 0;

        /* 4 read form NOP register should be issued in prior to the read from CDSNControl

           see Software Requirement 11.4 item 2. */

        DoC_Delay(docptr, 4);

        if (!(ReadDOC(docptr, CDSNControl) & CDSN_CTRL_FR_B))

                /* Call the out-of-line routine to wait */

                ret = _DoC_WaitReady(docptr);

        /* issue 2 read from NOP register after reading from CDSNControl register

           see Software Requirement 11.4 item 2. */

        DoC_Delay(docptr, 2);

        return ret;

}

/* DoC_Command: Send a flash command to the flash chip through the CDSN IO register

   with the internal pipeline. Each of 4 delay cycles (read from the NOP register) is

   required after writing to CDSN Control register, see Software Requirement 11.4 item 3. */

static inline void DoC_Command(unsigned long docptr, unsigned char command,

                               unsigned char xtraflags)

{

        /* Assert the CLE (Command Latch Enable) line to the flash chip */

        WriteDOC(xtraflags | CDSN_CTRL_CLE | CDSN_CTRL_CE, docptr, CDSNControl);

        DoC_Delay(docptr, 4);

        /* Send the command */

        WriteDOC(command, docptr, Mil_CDSN_IO);

        WriteDOC(0x00, docptr, WritePipeTerm);

        /* Lower the CLE line */

        WriteDOC(xtraflags | CDSN_CTRL_CE, docptr, CDSNControl);

        DoC_Delay(docptr, 4);

}

/* DoC_Address: Set the current address for the flash chip through the CDSN IO register

   with the internal pipeline. Each of 4 delay cycles (read from the NOP register) is

   required after writing to CDSN Control register, see Software Requirement 11.4 item 3. */

static inline void DoC_Address(unsigned long docptr, int numbytes, unsigned long ofs,

                               unsigned char xtraflags1, unsigned char xtraflags2)

{

        /* Assert the ALE (Address Latch Enable) line to the flash chip */

        WriteDOC(xtraflags1 | CDSN_CTRL_ALE | CDSN_CTRL_CE, docptr, CDSNControl);

        DoC_Delay(docptr, 4);

        /* Send the address */

        switch (numbytes)

            {

            case 1:

                    /* Send single byte, bits 0-7. */

                    WriteDOC(ofs & 0xff, docptr, Mil_CDSN_IO);

                    WriteDOC(0x00, docptr, WritePipeTerm);

                    break;

            case 2:

                    /* Send bits 9-16 followed by 17-23 */

                    WriteDOC((ofs >> 9)  & 0xff, docptr, Mil_CDSN_IO);

                    WriteDOC((ofs >> 17) & 0xff, docptr, Mil_CDSN_IO);

                    WriteDOC(0x00, docptr, WritePipeTerm);

                break;

            case 3:

                    /* Send 0-7, 9-16, then 17-23 */

                    WriteDOC(ofs & 0xff, docptr, Mil_CDSN_IO);

                    WriteDOC((ofs >> 9)  & 0xff, docptr, Mil_CDSN_IO);

                    WriteDOC((ofs >> 17) & 0xff, docptr, Mil_CDSN_IO);

                    WriteDOC(0x00, docptr, WritePipeTerm);

                break;

            default:

                return;

            }

        /* Lower the ALE line */

        WriteDOC(xtraflags1 | xtraflags2 | CDSN_CTRL_CE, docptr, CDSNControl);

        DoC_Delay(docptr, 4);

}

/* DoC_SelectChip: Select a given flash chip within the current floor */

static int DoC_SelectChip(unsigned long docptr, int chip)

{

        /* Select the individual flash chip requested */

        WriteDOC(chip, docptr, CDSNDeviceSelect);

        DoC_Delay(docptr, 4);

        /* Wait for it to be ready */

        return DoC_WaitReady(docptr);

}

/* DoC_SelectFloor: Select a given floor (bank of flash chips) */

static int DoC_SelectFloor(unsigned long docptr, int floor)

{

        /* Select the floor (bank) of chips required */

        WriteDOC(floor, docptr, FloorSelect);

        /* Wait for the chip to be ready */

        return DoC_WaitReady(docptr);

}

/* DoC_IdentChip: Identify a given NAND chip given {floor,chip} */

static int DoC_IdentChip(struct DiskOnChip *doc, int floor, int chip)

{

        int mfr, id, i, j;

        volatile char dummy;

        /* Page in the required floor/chip

           FIXME: is this supported by Millennium ?? */

        DoC_SelectFloor(doc->virtadr, floor);

        DoC_SelectChip(doc->virtadr, chip);

        /* Reset the chip, see Software Requirement 11.4 item 1. */

        DoC_Command(doc->virtadr, NAND_CMD_RESET, CDSN_CTRL_WP);

        DoC_WaitReady(doc->virtadr);

        /* Read the NAND chip ID: 1. Send ReadID command */

        DoC_Command(doc->virtadr, NAND_CMD_READID, CDSN_CTRL_WP);

        /* Read the NAND chip ID: 2. Send address byte zero */

        DoC_Address(doc->virtadr, 1, 0x00, CDSN_CTRL_WP, 0x00);

        /* Read the manufacturer and device id codes of the flash device through

           CDSN IO register see Software Requirement 11.4 item 5.*/

        dummy = ReadDOC(doc->virtadr, ReadPipeInit);

        DoC_Delay(doc->virtadr, 2);

        mfr = ReadDOC(doc->virtadr, Mil_CDSN_IO);

        DoC_Delay(doc->virtadr, 2);

        id  = ReadDOC(doc->virtadr, Mil_CDSN_IO);

        dummy = ReadDOC(doc->virtadr, LastDataRead);

        /* No response - return failure */

        if (mfr == 0xff || mfr == 0)

                return 0;

        /* FIXME: to deal with multi-flash on multi-Millennium case more carefully */

        for (i = 0; nand_flash_ids[i].name != NULL; i++) {

                if ( id == nand_flash_ids[i].id) {

                        /* Try to identify manufacturer */

                        for (j = 0; nand_manuf_ids[j].id != 0x0; j++) {

                                if (nand_manuf_ids[j].id == mfr)

                                        break;

                        }

                        printk(KERN_INFO "Flash chip found: Manufacturer ID: %2.2X, "

                               "Chip ID: %2.2X (%s:%s)\n",

                               mfr, id, nand_manuf_ids[j].name, nand_flash_ids[i].name);

                        doc->mfr = mfr;

                        doc->id = id;

                        doc->chipshift = nand_flash_ids[i].chipshift;

                        break;

                }

        }

        if (nand_flash_ids[i].name == NULL)

                return 0;

        else

                return 1;

}

/* DoC_ScanChips: Find all NAND chips present in a DiskOnChip, and identify them */

static void DoC_ScanChips(struct DiskOnChip *this)

{

        int floor, chip;

        int numchips[MAX_FLOORS_MIL];

        int ret;

        this->numchips = 0;

        this->mfr = 0;

        this->id = 0;

        /* For each floor, find the number of valid chips it contains */

        for (floor = 0,ret = 1; floor < MAX_FLOORS_MIL; floor++) {

                numchips[floor] = 0;

                for (chip = 0; chip < MAX_CHIPS_MIL && ret != 0; chip++) {

                        ret = DoC_IdentChip(this, floor, chip);

                        if (ret) {

                                numchips[floor]++;

                                this->numchips++;

                        }

                }

        }

        /* If there are none at all that we recognise, bail */

        if (!this->numchips) {

                printk("No flash chips recognised.\n");

                return;

        }

        /* Allocate an array to hold the information for each chip */

        this->chips = kmalloc(sizeof(struct Nand) * this->numchips, GFP_KERNEL);

        if (!this->chips){

                printk("No memory for allocating chip info structures\n");

                return;

        }

        /* Fill out the chip array with {floor, chipno} for each

         * detected chip in the device. */

        for (floor = 0, ret = 0; floor < MAX_FLOORS_MIL; floor++) {

                for (chip = 0 ; chip < numchips[floor] ; chip++) {

                        this->chips[ret].floor = floor;

                        this->chips[ret].chip = chip;

                        this->chips[ret].curadr = 0;

                        this->chips[ret].curmode = 0x50;

                        ret++;

                }

        }

        /* Calculate and print the total size of the device */

        this->totlen = this->numchips * (1 << this->chipshift);

        printk(KERN_INFO "%d flash chips found. Total DiskOnChip size: %ld MiB\n",

               this->numchips ,this->totlen >> 20);

}

static int DoCMil_is_alias(struct DiskOnChip *doc1, struct DiskOnChip *doc2)

{

        int tmp1, tmp2, retval;

        if (doc1->physadr == doc2->physadr)

                return 1;

        /* Use the alias resolution register which was set aside for this

         * purpose. If it's value is the same on both chips, they might

         * be the same chip, and we write to one and check for a change in

         * the other. It's unclear if this register is usuable in the

         * DoC 2000 (it's in the Millenium docs), but it seems to work. */

        tmp1 = ReadDOC(doc1->virtadr, AliasResolution);

        tmp2 = ReadDOC(doc2->virtadr, AliasResolution);

        if (tmp1 != tmp2)

                return 0;

        WriteDOC((tmp1+1) % 0xff, doc1->virtadr, AliasResolution);

        tmp2 = ReadDOC(doc2->virtadr, AliasResolution);

        if (tmp2 == (tmp1+1) % 0xff)

                retval = 1;

        else

                retval = 0;

        /* Restore register contents.  May not be necessary, but do it just to

         * be safe. */

        WriteDOC(tmp1, doc1->virtadr, AliasResolution);

        return retval;

}

static const char im_name[] = "DoCMil_init";

/* This routine is made available to other mtd code via

 * inter_module_register.  It must only be accessed through

 * inter_module_get which will bump the use count of this module.  The

 * addresses passed back in mtd are valid as long as the use count of

 * this module is non-zero, i.e. between inter_module_get and

 * inter_module_put.  Keith Owens <kaos@ocs.com.au> 29 Oct 2000.

 */

static void DoCMil_init(struct mtd_info *mtd)

{

        struct DiskOnChip *this = (struct DiskOnChip *)mtd->priv;

        struct DiskOnChip *old = NULL;

        /* We must avoid being called twice for the same device. */

        if (docmillist)

                old = (struct DiskOnChip *)docmillist->priv;

        while (old) {

                if (DoCMil_is_alias(this, old)) {

                        printk(KERN_NOTICE "Ignoring DiskOnChip Millennium at "

                               "0x%lX - already configured\n", this->physadr);

                        iounmap((void *)this->virtadr);

                        kfree(mtd);

                        return;

                }

                if (old->nextdoc)

                        old = (struct DiskOnChip *)old->nextdoc->priv;

                else

                        old = NULL;

        }

        mtd->name = "DiskOnChip Millennium";

        printk(KERN_NOTICE "DiskOnChip Millennium found at address 0x%lX\n",

               this->physadr);

        mtd->type = MTD_NANDFLASH;

        mtd->flags = MTD_CAP_NANDFLASH;

        mtd->size = 0;

        /* FIXME: erase size is not always 8kB */

        mtd->erasesize = 0x2000;

        mtd->oobblock = 512;

        mtd->oobsize = 16;

        mtd->module = THIS_MODULE;

        mtd->erase = doc_erase;

        mtd->point = NULL;

        mtd->unpoint = NULL;

        mtd->read = doc_read;

        mtd->write = doc_write;

        mtd->read_ecc = doc_read_ecc;

        mtd->write_ecc = doc_write_ecc;

        mtd->read_oob = doc_read_oob;

        mtd->write_oob = doc_write_oob;

        mtd->sync = NULL;

        this->totlen = 0;

        this->numchips = 0;

        this->curfloor = -1;

        this->curchip = -1;

        /* Ident all the chips present. */

        DoC_ScanChips(this);

        if (!this->totlen) {

                kfree(mtd);

                iounmap((void *)this->virtadr);

        } else {

                this->nextdoc = docmillist;

                docmillist = mtd;

                mtd->size  = this->totlen;

                add_mtd_device(mtd);

                return;

        }

}

static int doc_read (struct mtd_info *mtd, loff_t from, size_t len,

                     size_t *retlen, u_char *buf)

{

        /* Just a special case of doc_read_ecc */

        return doc_read_ecc(mtd, from, len, retlen, buf, NULL, 0);

}

static int doc_read_ecc (struct mtd_info *mtd, loff_t from, size_t len,

                         size_t *retlen, u_char *buf, u_char *eccbuf, int oobsel)

{

        int i, ret;

        volatile char dummy;

        unsigned char syndrome[6];

        struct DiskOnChip *this = (struct DiskOnChip *)mtd->priv;

        unsigned long docptr = this->virtadr;

        struct Nand *mychip = &this->chips[from >> (this->chipshift)];

        /* Don't allow read past end of device */

        if (from >= this->totlen)

                return -EINVAL;

        /* Don't allow a single read to cross a 512-byte block boundary */

        if (from + len > ((from | 0x1ff) + 1))

                len = ((from | 0x1ff) + 1) - from;

        /* Find the chip which is to be used and select it */

        if (this->curfloor != mychip->floor) {

                DoC_SelectFloor(docptr, mychip->floor);

                DoC_SelectChip(docptr, mychip->chip);

        } else if (this->curchip != mychip->chip) {

                DoC_SelectChip(docptr, mychip->chip);

        }

        this->curfloor = mychip->floor;

        this->curchip = mychip->chip;

        /* issue the Read0 or Read1 command depend on which half of the page

           we are accessing. Polling the Flash Ready bit after issue 3 bytes

           address in Sequence Read Mode, see Software Requirement 11.4 item 1.*/

        DoC_Command(docptr, (from >> 8) & 1, CDSN_CTRL_WP);

        DoC_Address(docptr, 3, from, CDSN_CTRL_WP, 0x00);

        DoC_WaitReady(docptr);

        if (eccbuf) {

                /* init the ECC engine, see Reed-Solomon EDC/ECC 11.1 .*/

                WriteDOC (DOC_ECC_RESET, docptr, ECCConf);

                WriteDOC (DOC_ECC_EN, docptr, ECCConf);

        } else {

                /* disable the ECC engine */

                WriteDOC (DOC_ECC_RESET, docptr, ECCConf);

                WriteDOC (DOC_ECC_DIS, docptr, ECCConf);

        }

        /* Read the data via the internal pipeline through CDSN IO register,

           see Pipelined Read Operations 11.3 */

        dummy = ReadDOC(docptr, ReadPipeInit);

#ifndef USE_MEMCPY

        for (i = 0; i < len-1; i++) {

                /* N.B. you have to increase the source address in this way or the

                   ECC logic will not work properly */

                buf[i] = ReadDOC(docptr, Mil_CDSN_IO + (i & 0xff));

        }

#else

        memcpy_fromio(buf, docptr + DoC_Mil_CDSN_IO, len - 1);

#endif

        buf[len - 1] = ReadDOC(docptr, LastDataRead);

        /* Let the caller know we completed it */

        *retlen = len;

        ret = 0;

        if (eccbuf) {

                /* Read the ECC data from Spare Data Area,

                   see Reed-Solomon EDC/ECC 11.1 */

                dummy = ReadDOC(docptr, ReadPipeInit);

#ifndef USE_MEMCPY

                for (i = 0; i < 5; i++) {

                        /* N.B. you have to increase the source address in this way or the

                           ECC logic will not work properly */

                        eccbuf[i] = ReadDOC(docptr, Mil_CDSN_IO + i);

                }

#else

                memcpy_fromio(eccbuf, docptr + DoC_Mil_CDSN_IO, 5);

#endif

                eccbuf[5] = ReadDOC(docptr, LastDataRead);

                /* Flush the pipeline */

                dummy = ReadDOC(docptr, ECCConf);

                dummy = ReadDOC(docptr, ECCConf);

                /* Check the ECC Status */

                if (ReadDOC(docptr, ECCConf) & 0x80) {

                        int nb_errors;

                        /* There was an ECC error */

#ifdef ECC_DEBUG

                        printk("DiskOnChip ECC Error: Read at %lx\n", (long)from);

#endif

                        /* Read the ECC syndrom through the DiskOnChip ECC logic.

                           These syndrome will be all ZERO when there is no error */

                        for (i = 0; i < 6; i++) {

                                syndrome[i] = ReadDOC(docptr, ECCSyndrome0 + i);

                        }

                        nb_errors = doc_decode_ecc(buf, syndrome);

#ifdef ECC_DEBUG

                        printk("ECC Errors corrected: %x\n", nb_errors);

#endif

                        if (nb_errors < 0) {

                                /* We return error, but have actually done the read. Not that

                                   this can be told to user-space, via sys_read(), but at least

                                   MTD-aware stuff can know about it by checking *retlen */

                                ret = -EIO;

                        }

                }

#ifdef PSYCHO_DEBUG

                printk("ECC DATA at %lx: %2.2X %2.2X %2.2X %2.2X %2.2X %2.2X\n",

                       (long)from, eccbuf[0], eccbuf[1], eccbuf[2], eccbuf[3],

                       eccbuf[4], eccbuf[5]);

#endif

                /* disable the ECC engine */

                WriteDOC(DOC_ECC_DIS, docptr , ECCConf);

        }

        return ret;

}

static int doc_write (struct mtd_info *mtd, loff_t to, size_t len,

                      size_t *retlen, const u_char *buf)

{

        char eccbuf[6];

        return doc_write_ecc(mtd, to, len, retlen, buf, eccbuf, 0);

}

static int doc_write_ecc (struct mtd_info *mtd, loff_t to, size_t len,

                          size_t *retlen, const u_char *buf, u_char *eccbuf, int oobsel)

{

        int i,ret = 0;

        volatile char dummy;

        struct DiskOnChip *this = (struct DiskOnChip *)mtd->priv;

        unsigned long docptr = this->virtadr;

        struct Nand *mychip = &this->chips[to >> (this->chipshift)];

        /* Don't allow write past end of device */

        if (to >= this->totlen)

                return -EINVAL;

#if 0

        /* Don't allow a single write to cross a 512-byte block boundary */

        if (to + len > ( (to | 0x1ff) + 1))

                len = ((to | 0x1ff) + 1) - to;

#else

        /* Don't allow writes which aren't exactly one block */

        if (to & 0x1ff || len != 0x200)

                return -EINVAL;

#endif

        /* Find the chip which is to be used and select it */

        if (this->curfloor != mychip->floor) {

                DoC_SelectFloor(docptr, mychip->floor);

                DoC_SelectChip(docptr, mychip->chip);

        } else if (this->curchip != mychip->chip) {

                DoC_SelectChip(docptr, mychip->chip);

        }

        this->curfloor = mychip->floor;

        this->curchip = mychip->chip;

        /* Reset the chip, see Software Requirement 11.4 item 1. */

        DoC_Command(docptr, NAND_CMD_RESET, 0x00);

        DoC_WaitReady(docptr);

        /* Set device to main plane of flash */

        DoC_Command(docptr, NAND_CMD_READ0, 0x00);

        /* issue the Serial Data In command to initial the Page Program process */

        DoC_Command(docptr, NAND_CMD_SEQIN, 0x00);

        DoC_Address(docptr, 3, to, 0x00, 0x00);

        DoC_WaitReady(docptr);

        if (eccbuf) {

                /* init the ECC engine, see Reed-Solomon EDC/ECC 11.1 .*/

                WriteDOC (DOC_ECC_RESET, docptr, ECCConf);

                WriteDOC (DOC_ECC_EN | DOC_ECC_RW, docptr, ECCConf);

        } else {

                /* disable the ECC engine */

                WriteDOC (DOC_ECC_RESET, docptr, ECCConf);

                WriteDOC (DOC_ECC_DIS, docptr, ECCConf);

        }

        /* Write the data via the internal pipeline through CDSN IO register,

           see Pipelined Write Operations 11.2 */

#ifndef USE_MEMCPY

        for (i = 0; i < len; i++) {

                /* N.B. you have to increase the source address in this way or the

                   ECC logic will not work properly */

                WriteDOC(buf[i], docptr, Mil_CDSN_IO + i);

        }

#else

        memcpy_toio(docptr + DoC_Mil_CDSN_IO, buf, len);

#endif

        WriteDOC(0x00, docptr, WritePipeTerm);

        if (eccbuf) {

                /* Write ECC data to flash, the ECC info is generated by the DiskOnChip ECC logic

                   see Reed-Solomon EDC/ECC 11.1 */

                WriteDOC(0, docptr, NOP);

                WriteDOC(0, docptr, NOP);

                WriteDOC(0, docptr, NOP);

                /* Read the ECC data through the DiskOnChip ECC logic */

                for (i = 0; i < 6; i++) {

                        eccbuf[i] = ReadDOC(docptr, ECCSyndrome0 + i);

                }

                /* ignore the ECC engine */

                WriteDOC(DOC_ECC_DIS, docptr , ECCConf);

#ifndef USE_MEMCPY

                /* Write the ECC data to flash */

                for (i = 0; i < 6; i++) {

                        /* N.B. you have to increase the source address in this way or the

                           ECC logic will not work properly */

                        WriteDOC(eccbuf[i], docptr, Mil_CDSN_IO + i);

                }

#else

                memcpy_toio(docptr + DoC_Mil_CDSN_IO, eccbuf, 6);

#endif

                /* write the block status BLOCK_USED (0x5555) at the end of ECC data

                   FIXME: this is only a hack for programming the IPL area for LinuxBIOS

                   and should be replace with proper codes in user space utilities */

                WriteDOC(0x55, docptr, Mil_CDSN_IO);

                WriteDOC(0x55, docptr, Mil_CDSN_IO + 1);

                WriteDOC(0x00, docptr, WritePipeTerm);

#ifdef PSYCHO_DEBUG

                printk("OOB data at %lx is %2.2X %2.2X %2.2X %2.2X %2.2X %2.2X\n",

                       (long) to, eccbuf[0], eccbuf[1], eccbuf[2], eccbuf[3],

                       eccbuf[4], eccbuf[5]);

#endif

        }

        /* Commit the Page Program command and wait for ready