wanpipe/patches/kdrivers/include/aft_core.h

1686 lines
39 KiB
C

/*****************************************************************************
* aft_core.h
*
* WANPIPE(tm) AFT CORE Hardware Support
*
* Authors: Nenad Corbic <ncorbic@sangoma.com>
*
* Copyright: (c) 2003-2008 Sangoma Technologies Inc.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version
* 2 of the License, or (at your option) any later version.
* ============================================================================
* Jan 07, 2003 Nenad Corbic Initial version.
*****************************************************************************/
#ifndef _SDLA_AFT_TE1_H
#define _SDLA_AFT_TE1_H
#include "wanpipe_api.h"
#include "aft_core_user.h"
#ifdef WAN_KERNEL
#include "aft_core_private.h"
#include "aft_core_utils.h"
#include "aft_core_prot.h"
#include "aft_a104.h"
#include "aft_t116.h"
#if defined(CONFIG_WANPIPE_PRODUCT_AFT_RM)
# include "aft_analog.h"
#endif
#if defined(CONFIG_WANPIPE_PRODUCT_AFT_BRI)
# include "aft_bri.h"
#endif
#include "aft_a104.h"
#include "aft_analog.h"
#include "aft_bri.h"
#include "aft_gsm.h"
#include "aft_t116.h"
#if defined(__WINDOWS__)
# include <sdladrv_private.h>
# define AFT_MAX_CHIP_SECURITY_CNT 100
#endif
/*======================================================
* GLOBAL (All Ports)
*
* AFT Chip PCI Registers
*
* Global Configuration Area for All Ports
*
*=====================================================*/
#define AFT_CHIP_CFG_REG 0x40
#define AFT_ANALOG_MCPU_IFACE_RW 0x44
#define AFT_WDT_CTRL_REG 0x48
#define AFT_WDT_CTRL_REG2 0x64
#define AFT_WDT_1TO4_CTRL_REG AFT_WDT_CTRL_REG
#define AFT_WDT_1TO4_CTRL_REG2 AFT_WDT_CTRL_REG2
#define AFT_DATA_MUX_REG 0x4C
#define AFT_FIFO_MARK_REG 0x50
#define AFT_MCPU_INTERFACE_RW 0x54
#define AFT_ANALOG_SPI_IFACE_RW 0x54
#define AFT_CHIP_STAT_REG 0x58
#define AFT_CHIP_STAT_REG2 0x60
#define AFT_WDT_4TO8_CTRL_REG 0x5C
#define AFT_WDT_4TO8_CTRL_REG2 0x68
#define AFT_FREE_RUN_TIMER_CTRL_REG 0x98
#define AFT_FREE_RUN_TIMER_PENDING_REG 0x9C
/*=================================================
A104 CHIP CFG REGISTERS
*/
# define AFT_CHIPCFG_TE1_CFG_BIT 0
# define AFT_CHIPCFG_56K_CFG_BIT 0
# define AFT_CHIPCFG_ANALOG_CLOCK_SELECT_BIT 0
# define AFT_CHIPCFG_A500_NET_SYNC_CLOCK_SELECT_BIT 0
# define AFT_CHIPCFG_SFR_EX_BIT 1
# define AFT_CHIPCFG_SFR_IN_BIT 2
# define AFT_CHIPCFG_FE_INTR_CFG_BIT 3
# define AFT_CHIPCFG_A104D_EC_SEC_KEY_MASK 0x7
# define AFT_CHIPCFG_A104D_EC_SEC_KEY_SHIFT 4
# define AFT_CHIPCFG_A200_EC_SEC_KEY_MASK 0x3
# define AFT_CHIPCFG_A200_EC_SEC_KEY_SHIFT 16
# define AFT_CHIPCFG_A600_EC_SEC_KEY_MASK 0x3
# define AFT_CHIPCFG_A600_EC_SEC_KEY_SHIFT 4
# define AFT_CHIPCFG_A700_EC_SEC_KEY_MASK 0x1
# define AFT_CHIPCFG_A700_EC_SEC_KEY_SHIFT 4
# define AFT_CHIPCFG_SPI_SLOW_BIT 5 /* Slow down SPI */
#if 0
# define AFT_CHIPCFG_EC_INTR_CFG_BIT 4 /* Shark or Analog */
# define AFT_CHIPCFG_SECURITY_CFG_BIT 6
#endif
# define AFT_CHIPCFG_RAM_READY_BIT 7
# define AFT_CHIPCFG_HDLC_CTRL_RDY_BIT 8
# define AFT_CHIPCFG_ANALOG_INTR_MASK 0x0F /* Analog */
# define AFT_CHIPCFG_ANALOG_INTR_SHIFT 9
# define AFT_CHIPCFG_A500_INTR_MASK 0x0F /* A500 BRI - interrupt pending from upto 4 remoras.
* bit 9 - remora 1
* bit 10- remora 2
* bit 11- remora 3
* bit 12- remora 4
*/
# define AFT_CHIPCFG_A500_INTR_SHIFT 9
# define A500_LINE_SYNC_MASTER_BIT 31
# define AFT_CHIPCFG_A108_EC_CLOCK_SRC_MASK 0x07 /* A108 */
# define AFT_CHIPCFG_A108_EC_CLOCK_SRC_SHIFT 9
# define AFT_CHIPCFG_A104D_EC_SECURITY_BIT 12
# define AFT_CHIPCFG_A108_EC_INTR_ENABLE_BIT 12 /* A108 */
# define AFT_CHIPCFG_A500_EC_INTR_ENABLE_BIT 14 /* A500 - BRI not used for now */
# define AFT_CHIPCFG_EC_INTR_STAT_BIT 13
# define AFT_CHIPCFG_B600_EC_RESET_BIT 25
# define AFT_CHIPCFG_B600_EC_CHIP_PRESENT_BIT 20 /* B600 and B601 only */
/* A104 A200 A108 Differ Here
* By default any register without device name is
* common to all all.
*/
# define AFT_CHIPCFG_P1_TDMV_INTR_BIT 14
# define AFT_CHIPCFG_P2_TDMV_INTR_BIT 15
# define AFT_CHIPCFG_A104_TDM_ACK_BIT 15
# define AFT_CHIPCFG_A200_EC_SECURITY_BIT 15 /* Analog */
# define AFT_CHIPCFG_A108_EC_SECURITY_BIT 15 /* A108 */
# define AFT_CHIPCFG_A500_EC_SECURITY_BIT 15 /* A500/BRI */
# define AFT_CHIPCFG_P3_TDMV_INTR_BIT 16
# define AFT_CHIPCFG_A108_A104_TDM_FIFO_SYNC_BIT 16 /* A108 Global Fifo Sync Bit */
# define AFT_CHIPCFG_A700_ANALOG_TDM_FIFO_SYNC_BIT 18 /* A700 Analog Global Fifo Sync Bit */
# define AFT_CHIPCFG_P4_TDMV_INTR_BIT 17
# define AFT_CHIPCFG_A108_A104_TDM_DMA_RINGBUF_BIT 17 /* A108 Quad DMA Ring buf enable */
# define AFT_CHIPCFG_P1_WDT_INTR_BIT 18
# define AFT_CHIPCFG_P2_WDT_INTR_BIT 19
# define AFT_CHIPCFG_P3_WDT_INTR_BIT 20
# define AFT_CHIPCFG_P4_WDT_INTR_BIT 21
# define AFT_CHIPCFG_FREE_RUN_INTR_BIT 20 /* AFT FREE Run timer bit */
# define AFT_CHIPCFG_A108_EC_INTER_STAT_BIT 21 /* A108 */
# define AFT_CHIPCFG_FE_INTR_STAT_BIT 22
# define AFT_CHIPCFG_SECURITY_STAT_BIT 23
/* A104 & A104D IRQ Status Bits */
# define AFT_CHIPCFG_HDLC_INTR_MASK 0x0F
# define AFT_CHIPCFG_HDLC_INTR_SHIFT 24
# define AFT_CHIPCFG_DMA_INTR_MASK 0x0F
# define AFT_CHIPCFG_DMA_INTR_SHIFT 28
# define AFT_CHIPCFG_A108_TDM_GLOBAL_RX_INTR_ACK 30
# define AFT_CHIPCFG_A108_TDM_GLOBAL_TX_INTR_ACK 31
# define AFT_CHIPCFG_A700_TDM_ANALOG_RX_INTR_ACK 28
# define AFT_CHIPCFG_A700_TDM_ANALOG_TX_INTR_ACK 29
# define AFT_CHIPCFG_WDT_INTR_MASK 0x0F
# define AFT_CHIPCFG_WDT_INTR_SHIFT 18
# define AFT_CHIPCFG_TDMV_INTR_MASK 0x0F
# define AFT_CHIPCFG_TDMV_INTR_SHIFT 14
# define AFT_CHIPCFG_WDT_FE_INTR_STAT 0
# define AFT_CHIPCFG_WDT_TX_INTR_STAT 1
# define AFT_CHIPCFG_WDT_RX_INTR_STAT 2
#define AFT_CLKCFG_A600_REG 0x1090
#define AFT_CLKCFG_A600_CLK_OUTPUT_BIT 0
#define AFT_CLKCFG_A600_CLK_EXT_CLK_SRC_BIT 4
#define AFT_CLKCFG_A600_CLK_SRC_BIT_MASK 0x6
#define AFT_CLKCFG_A600_CLK_SRC_BIT_SHIFT 1
#define AFT_CLKCFG_A600_CLK_OUT_BIT_MASK 0x7
#define AFT_CLKCFG_A600_CLK_OUT_BIT_SHIFT 5
/* Use the onboard oscillator clk 8.192 Mhz */
# define AFT_CLKCFG_A600_CLK_SRC_OSC 0x00
/* Use the clock from front end no pll */
# define AFT_CLKCFG_A600_CLK_SRC_EXT_NO_PLL 0x01
/* Use the clock from front end with pll */
# define AFT_CLKCFG_A600_CLK_SRC_EXT_PLL 0x02
/* use the board system clock */
# define AFT_CLKCFG_A600_CLK_OUT_BOARD 0x04
#define AFT_CLKCFG_B601_EC_SRC_MUX_MASK 0x03
#define AFT_CLKCFG_B601_EC_SRC_MUX_SHIFT 1
#define AFT_CLKCFG_B601_EC_SRC_MUX_OSC_CLK 0x0
#define AFT_CLKCFG_B601_EC_SRC_MUX_EXT_CLK 0x1
#define AFT_CLKCFG_B601_EC_SRC_MUX_TRISTATE 0x2
#define AFT_CLKCFG_B601_EXT_CLK_VAL_MASK 0x1
#define AFT_CLKCFG_B601_EXT_CLK_VAL_SHIFT 4
#define AFT_CLKCFG_B601_EXT_CLK_MUX_MASK 0x7
#define AFT_CLKCFG_B601_EXT_CLK_MUX_SHIFT 5
#define AFT_CLKCFG_B601_EXT_CLK_MUX_LINE_0 0x00
#define AFT_CLKCFG_B601_EXT_CLK_MUX_LINE_1 0x01
#define AFT_CLKCFG_B601_EXT_CLK_MUX_OSC_2000HZ 0x02
#define AFT_CLKCFG_B601_EXT_CLK_MUX_OSC_1500HZ 0x03
#define AFT_CLKCFG_B601_EXT_CLK_MUX_H100_CLK 0x04
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_MASK 0x7
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_SHIFT 8
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_LINE_0 0x00
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_LINE_1 0x01
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_OSC_2000HZ 0x02
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_OSC_1500HZ 0x03
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_EXT_8000HZ 0x04
#define AFT_CLKCFG_B601_PLL_CLK_SRC_MUX_EXT_1500HZ 0x05
static __inline u32
aft_chipcfg_get_fifo_reset_bit(sdla_t* card)
{
if (card->adptr_type == AFT_ADPTR_FLEXBRI &&
card->wandev.comm_port == 1) {
return AFT_CHIPCFG_A700_ANALOG_TDM_FIFO_SYNC_BIT;
}
return AFT_CHIPCFG_A108_A104_TDM_FIFO_SYNC_BIT;
}
static __inline u32
aft_chipcfg_get_rx_intr_ack_bit(sdla_t* card)
{
if (card->adptr_type == AFT_ADPTR_FLEXBRI &&
card->wandev.comm_port == 1) {
return AFT_CHIPCFG_A700_TDM_ANALOG_RX_INTR_ACK;
}
return AFT_CHIPCFG_A108_TDM_GLOBAL_RX_INTR_ACK;
}
static __inline u32
aft_chipcfg_get_tx_intr_ack_bit(sdla_t* card)
{
if (card->adptr_type == AFT_ADPTR_FLEXBRI &&
card->wandev.comm_port == 1) {
return AFT_CHIPCFG_A700_TDM_ANALOG_TX_INTR_ACK;
}
return AFT_CHIPCFG_A108_TDM_GLOBAL_TX_INTR_ACK;
}
static __inline u32
aft_chipcfg_get_rx_intr_ack_bit_bymap(u32 comm_port)
{
if (comm_port == 1) {
return AFT_CHIPCFG_A700_TDM_ANALOG_RX_INTR_ACK;
}
return AFT_CHIPCFG_A108_TDM_GLOBAL_RX_INTR_ACK;
}
static __inline u32
aft_chipcfg_get_tx_intr_ack_bit_bymap(u32 comm_port)
{
if (comm_port == 1) {
return AFT_CHIPCFG_A700_TDM_ANALOG_TX_INTR_ACK;
}
return AFT_CHIPCFG_A108_TDM_GLOBAL_TX_INTR_ACK;
}
/* A104 & A104D Interrupt Status Funcitons */
static __inline u32
aft_chipcfg_get_hdlc_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_HDLC_INTR_SHIFT;
reg&=AFT_CHIPCFG_HDLC_INTR_MASK;
return reg;
}
static __inline u32
aft_chipcfg_get_analog_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_ANALOG_INTR_SHIFT;
reg&=AFT_CHIPCFG_ANALOG_INTR_MASK;
return reg;
}
static __inline void
aft_chipcfg_set_oct_clk_src(u32 *reg, u32 src)
{
*reg&=~(AFT_CHIPCFG_A108_EC_CLOCK_SRC_MASK<<AFT_CHIPCFG_A108_EC_CLOCK_SRC_SHIFT);
src&=AFT_CHIPCFG_A108_EC_CLOCK_SRC_MASK;
*reg|=(src<<AFT_CHIPCFG_A108_EC_CLOCK_SRC_SHIFT);
}
static __inline u32
aft_chipcfg_get_dma_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_DMA_INTR_SHIFT;
reg&=AFT_CHIPCFG_DMA_INTR_MASK;
return reg;
}
static __inline u32
aft_chipcfg_get_wdt_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_WDT_INTR_SHIFT;
reg&=AFT_CHIPCFG_WDT_INTR_MASK;
return reg;
}
static __inline u32
aft_chipcfg_get_tdmv_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_TDMV_INTR_SHIFT;
reg&=AFT_CHIPCFG_TDMV_INTR_MASK;
return reg;
}
/* A108 IRQ Status Bits on CHIP_STAT_REG */
# define AFT_CHIPCFG_A108_WDT_INTR_MASK 0xFF
# define AFT_CHIPCFG_A108_WDT_INTR_SHIFT 0
# define AFT_CHIPCFG_A108_TDMV_INTR_MASK 0xFF
# define AFT_CHIPCFG_A108_TDMV_INTR_SHIFT 8
# define AFT_CHIPCFG_A108_FIFO_INTR_MASK 0xFF
# define AFT_CHIPCFG_A108_FIFO_INTR_SHIFT 16
# define AFT_CHIPCFG_A108_DMA_INTR_MASK 0xFF
# define AFT_CHIPCFG_A108_DMA_INTR_SHIFT 24
/* A108 Interrupt Status Functions */
static __inline u32
aft_chipcfg_a108_get_fifo_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_A108_FIFO_INTR_SHIFT;
reg&=AFT_CHIPCFG_A108_FIFO_INTR_MASK;
return reg;
}
static __inline u32
aft_chipcfg_a108_get_dma_intr_stats(u32 reg)
{
DEBUG_TEST("INSIDE aft_chipcfg_a108_get_dma_intr_stats, reg= 0x%X\n",reg);
reg=reg>>AFT_CHIPCFG_A108_DMA_INTR_SHIFT;
reg&=AFT_CHIPCFG_A108_DMA_INTR_MASK;
return reg;
}
static __inline u32
aft_chipcfg_a108_get_wdt_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_A108_WDT_INTR_SHIFT;
reg&=AFT_CHIPCFG_A108_WDT_INTR_MASK;
return reg;
}
static __inline u32
aft_chipcfg_a108_get_tdmv_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_A108_TDMV_INTR_SHIFT;
reg&=AFT_CHIPCFG_A108_TDMV_INTR_MASK;
return reg;
}
/* AFT Serial specific bits */
# define AFT_CHIPCFG_SERIAL_WDT_INTR_MASK 0xF
# define AFT_CHIPCFG_SERIAL_WDT_INTR_SHIFT 0
# define AFT_CHIPCFG_SERIAL_STATUS_INTR_MASK 0xFFF
# define AFT_CHIPCFG_SERIAL_STATUS_INTR_SHIFT 4
# define AFT_CHIPCFG_SERIAL_CTS_STATUS_INTR_BIT 0
# define AFT_CHIPCFG_SERIAL_DCD_STATUS_INTR_BIT 1
# define AFT_CHIPCFG_SERIAL_RTS_STATUS_INTR_BIT 2
/* Serial specific functions */
static __inline u32
aft_chipcfg_serial_get_status_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_SERIAL_STATUS_INTR_SHIFT;
reg&=AFT_CHIPCFG_SERIAL_STATUS_INTR_MASK;
return reg;
}
static __inline u32
aft_chipcfg_serial_get_wdt_intr_stats(u32 reg)
{
reg=reg>>AFT_CHIPCFG_SERIAL_WDT_INTR_SHIFT;
reg&=AFT_CHIPCFG_SERIAL_WDT_INTR_MASK;
return reg;
}
/* 56k IRQ status bits */
# define AFT_CHIPCFG_A56K_WDT_INTR_BIT 0
# define AFT_CHIPCFG_A56K_DMA_INTR_BIT 24
# define AFT_CHIPCFG_A56K_FIFO_INTR_BIT 16
# define AFT_CHIPCFG_A56K_FE_MASK 0x7F
# define AFT_CHIPCFG_A56K_FE_SHIFT 9
static __inline u32
aft_chipcfg_a56k_read_fe(u32 reg)
{
reg=reg>>AFT_CHIPCFG_A56K_FE_SHIFT;
reg&=AFT_CHIPCFG_A56K_FE_MASK;
return reg;
}
static __inline u32
aft_chipcfg_a56k_write_fe(u32 reg, u32 val)
{
val&=AFT_CHIPCFG_A56K_FE_MASK;
reg &= ~(AFT_CHIPCFG_A56K_FE_MASK<<AFT_CHIPCFG_A56K_FE_SHIFT);
reg |= (val<<AFT_CHIPCFG_A56K_FE_SHIFT);
return reg;
}
static __inline u32
aft_chipcfg_get_ec_channels(u32 reg)
{
switch ((reg>>AFT_CHIPCFG_A104D_EC_SEC_KEY_SHIFT)&AFT_CHIPCFG_A104D_EC_SEC_KEY_MASK){
case 0x00:
return 0;
case 0x01:
return 32;
case 0x02:
return 64;
case 0x03:
return 96;
case 0x04:
return 128;
case 0x05:
return 256;
default:
return 0;
}
return 0;
}
static __inline u32
aft_chipcfg_get_a200_ec_channels(u32 reg)
{
switch ((reg>>AFT_CHIPCFG_A200_EC_SEC_KEY_SHIFT)&AFT_CHIPCFG_A200_EC_SEC_KEY_MASK){
case 0x00:
return 0;
case 0x01:
return 16;
case 0x02:
return 32;
default:
return 0;
}
return 0;
}
static __inline u32
aft_chipcfg_get_a600_ec_channels(u32 reg, u8 core_rev)
{
if (core_rev >= 3) {
if (wan_test_bit(AFT_CHIPCFG_B600_EC_CHIP_PRESENT_BIT, &reg)) {
return 5;
}
return 0;
} else {
switch ((reg>>AFT_CHIPCFG_A600_EC_SEC_KEY_SHIFT) & AFT_CHIPCFG_A600_EC_SEC_KEY_MASK){
case 0x00:
return 0;
case 0x01:
return 5;
default:
return 0;
}
}
return 0;
}
static __inline u32
aft_chipcfg_get_b601_ec_channels(u32 reg)
{
if (wan_test_bit(AFT_CHIPCFG_B600_EC_CHIP_PRESENT_BIT, &reg)) {
return 64;
}
return 0;
}
static __inline u32
aft_chipcfg_get_b601_security(u32 reg)
{
return((reg >> AFT_CHIPCFG_A600_EC_SEC_KEY_SHIFT) & AFT_CHIPCFG_A600_EC_SEC_KEY_MASK);
}
static __inline u32
aft_chipcfg_get_a700_ec_channels(u32 reg)
{
switch ((reg>>AFT_CHIPCFG_A700_EC_SEC_KEY_SHIFT)&AFT_CHIPCFG_A700_EC_SEC_KEY_MASK){
case 0x0:
return 0;
case 0x1:
return 16;
default:
return 0;
}
return 0;
}
# define AFT_WDTCTRL_MASK 0xFF
# define AFT_WDTCTRL_TIMEOUT 75 /* ms */
static __inline void
aft_wdt_ctrl_reset(u8 *reg)
{
*reg=0xFF;
}
static __inline void
aft_wdt_ctrl_set(u8 *reg, u8 timeout)
{
timeout&=AFT_WDTCTRL_MASK;
*reg=timeout;
}
#define AFT_FIFO_MARK_32_MASK 0x3F
#define AFT_FIFO_MARK_32_SHIFT 0
#define AFT_FIFO_MARK_64_MASK 0x3F
#define AFT_FIFO_MARK_64_SHIFT 6
#define AFT_FIFO_MARK_128_MASK 0x3F
#define AFT_FIFO_MARK_128_SHIFT 12
#define AFT_FIFO_MARK_256_MASK 0x3F
#define AFT_FIFO_MARK_256_SHIFT 18
#define AFT_FIFO_MARK_512_MASK 0x3F
#define AFT_FIFO_MARK_512_SHIFT 24
static __inline void
aft_fifo_mark_gset(u32 *reg, u8 mark)
{
mark&=AFT_FIFO_MARK_32_MASK;
*reg=0;
*reg=(mark<<AFT_FIFO_MARK_32_SHIFT)|
(mark<<AFT_FIFO_MARK_64_SHIFT)|
(mark<<AFT_FIFO_MARK_128_SHIFT)|
(mark<<AFT_FIFO_MARK_256_SHIFT)|
(mark<<AFT_FIFO_MARK_512_SHIFT);
}
/*======================================================
*
* AFT AFT_CHIP_STAT_REG
*
*=====================================================*/
/*======================================================
*
* AFT_LINE_CFG_REG
*
*=====================================================*/
#define AFT_LINE_CFG_REG 0x100
#define AFT_TX_DMA_INTR_MASK_REG 0x104
#define AFT_TX_DMA_INTR_PENDING_REG 0x108
#define AFT_TX_FIFO_INTR_PENDING_REG 0x10C
#define AFT_RX_DMA_INTR_MASK_REG 0x110
#define AFT_RX_DMA_INTR_PENDING_REG 0x114
#define AFT_RX_FIFO_INTR_PENDING_REG 0x118
#define AFT_SERIAL_LINE_CFG_REG 0x210
# define AFT_LCFG_FE_IFACE_RESET_BIT 0
# define AFT_LCFG_TX_FE_SYNC_STAT_BIT 1
# define AFT_LCFG_TX_FE_FIFO_STAT_BIT 2
# define AFT_LCFG_RX_FE_SYNC_STAT_BIT 3
# define AFT_LCFG_RX_FE_FIFO_STAT_BIT 4
# define AFT_LCFG_SS7_MODE_BIT 5
# define AFT_LCFG_SS7_LSSU_FRMS_SZ_BIT 6
# define AFT_LCFG_DMA_INTR_BIT 8
# define AFT_LCFG_FIFO_INTR_BIT 9
# define AFT_LCFG_TDMV_CH_NUM_MASK 0x1F
# define AFT_LCFG_TDMV_CH_NUM_SHIFT 10
# define AFT_LCFG_TDMV_INTR_BIT 15
# define AFT_LCFG_A108_CLK_ROUTE_MASK 0x0F
# define AFT_LCFG_A108_CLK_ROUTE_SHIFT 16
# define AFT_LCFG_FE_SYNC_CNT_MASK 0xFF
# define AFT_LCFG_FE_SYNC_CNT_SHIFT 20
/* Not Digital */
# define AFT_LCFG_CLR_CHNL_EN 26
# define AFT_LCFG_FE_CLK_ROUTE_BIT 27
# define AFT_LCFG_FE_CLK_SOURCE_MASK 0x03
# define AFT_LCFG_FE_CLK_SOURCE_SHIFT 28
# define AFT_LCFG_GREEN_LED_BIT 30
# define AFT_LCFG_A108_FE_CLOCK_MODE_BIT 31 /* A108 */
# define AFT_LCFG_RED_LED_BIT 31
# define AFT_LCFG_A108_FE_TE1_MODE_BIT 30 /* A108 */
/*A116 TAP*/
#define AFT_LCFG_T116_PORT_REG 0x06
#define AFT_LCFG_T116_FE_FIFO_WRITE_ERR 0
#define AFT_LCFG_T116_FE_FIFO_UNDERFLOW 1
#define AFT_LCFG_T116_FE_FIFO_OVERFLOW 2
#define AFT_LCFG_T116_FE_RX_SYNC 3
#define AFT_LCFG_T116_FE_RESET 6
#define AFT_LCFG_T116_FE_MODE 7
#define AFT_DCM_T116_REG 0x03
#define AFT_DCM_T116_PHASE_ERR_BIT 0
#define AFT_DCM_T116_LOSS_OF_CLOCK_BIT 1
#define AFT_DCM_T116_CLKFX_ERROR_BIT 2
#define AFT_LCFG_B601_CLK_ROUTE_MASK 0x07
#define AFT_LCFG_B601_CLK_ROUTE_SHIFT 16
#define AFT_LCFG_B601_CLK_SRC_LINE_0 0x00 /* Receive clock from line 0 is source */
#define AFT_LCFG_B601_CLK_SRC_LINE_1 0x01 /* Receive clock from line 1 is source , Not used for now */
#define AFT_LCFG_B601_CLK_SRC_EXT_2000HZ 0x02 /* External clock in case 2.048 Mhz is the source */
#define AFT_LCFG_B601_CLK_SRC_EXT_1500HZ 0x03 /* External clock in case 1.544 Mhz is the source */
#define AFT_LCFG_B601_CLK_SRC_OSC_2000HZ 0x04 /* Master Board oscillator 2.048 Mhz is the source */
#define AFT_LCFG_B601_CLK_SRC_OSC_1500HZ 0x05 /* Master Board oscillator 1.544 Mhz is the source */
#define AFT_LCFG_B601_FE_CHIP_RESET_BIT 5 /* For B601 only */
#define AFT_LCFG_B601_GREEN_LED_BIT 6
#define AFT_LCFG_B601_RED_LED_BIT 7
#define AFT_B601_ECHO_EN_CTRL_REG 0x210
#define AFT_B601_DATA_MUX_EN_CTRL_REG 0x20C
static __inline void
aft_lcfg_b601_fe_clk_source(u32 *reg, u32 src)
{
*reg&=~(AFT_LCFG_B601_CLK_ROUTE_MASK<<AFT_LCFG_B601_CLK_ROUTE_SHIFT);
*reg|=(src&AFT_LCFG_B601_CLK_ROUTE_MASK)<<AFT_LCFG_B601_CLK_ROUTE_SHIFT;
}
static __inline void
aft_lcfg_fe_clk_source(u32 *reg, u32 src)
{
*reg&=~(AFT_LCFG_FE_CLK_SOURCE_MASK<<AFT_LCFG_FE_CLK_SOURCE_SHIFT);
*reg|=(src&AFT_LCFG_FE_CLK_SOURCE_MASK)<<AFT_LCFG_FE_CLK_SOURCE_SHIFT;
}
static __inline void
aft_lcfg_a108_fe_clk_source(u32 *reg, u32 src)
{
*reg&=~(AFT_LCFG_A108_CLK_ROUTE_MASK<<AFT_LCFG_A108_CLK_ROUTE_SHIFT);
*reg|=(src&AFT_LCFG_A108_CLK_ROUTE_MASK)<<AFT_LCFG_A108_CLK_ROUTE_SHIFT;
}
static __inline void
aft_lcfg_tdmv_cnt_inc(u32 *reg)
{
u32 cnt = (*reg>>AFT_LCFG_TDMV_CH_NUM_SHIFT)&AFT_LCFG_TDMV_CH_NUM_MASK;
if (cnt < 32){
cnt++;
}
*reg&=~(AFT_LCFG_TDMV_CH_NUM_MASK<<AFT_LCFG_TDMV_CH_NUM_SHIFT);
*reg|=(cnt&AFT_LCFG_TDMV_CH_NUM_MASK)<<AFT_LCFG_TDMV_CH_NUM_SHIFT;
}
static __inline void
aft_lcfg_tdmv_cnt_dec(u32 *reg)
{
u32 cnt = (*reg>>AFT_LCFG_TDMV_CH_NUM_SHIFT)&AFT_LCFG_TDMV_CH_NUM_MASK;
if (cnt > 0){
cnt--;
}
*reg&=~(AFT_LCFG_TDMV_CH_NUM_MASK<<AFT_LCFG_TDMV_CH_NUM_SHIFT);
*reg|=(cnt&AFT_LCFG_TDMV_CH_NUM_MASK)<<AFT_LCFG_TDMV_CH_NUM_SHIFT;
}
static __inline u32
aft_lcfg_get_fe_sync_cnt(u32 reg)
{
return (reg>>AFT_LCFG_FE_SYNC_CNT_SHIFT)&AFT_LCFG_FE_SYNC_CNT_MASK;
}
static __inline void
aft_lcfg_set_fe_sync_cnt(u32 *reg, int cnt)
{
*reg&=~(AFT_LCFG_FE_SYNC_CNT_MASK<<AFT_LCFG_FE_SYNC_CNT_SHIFT);
*reg|=((cnt&AFT_LCFG_FE_SYNC_CNT_MASK)<<AFT_LCFG_FE_SYNC_CNT_SHIFT);
}
/* SS7 LCFG MODE
* 0: 128
* 1: 4096
*
* SS7 LSSU FRM SZ
* 0: 4byte (if 128) || 7byte (if 4096)
* 1: 5byte (if 128) || 8byte (if 4096)
*/
static __inline void
aft_lcfg_ss7_mode128_cfg(u32 *reg, int lssu_size)
{
wan_clear_bit(AFT_LCFG_SS7_MODE_BIT,reg);
if (lssu_size == 4){
wan_clear_bit(AFT_LCFG_SS7_LSSU_FRMS_SZ_BIT,reg);
}else{
wan_set_bit(AFT_LCFG_SS7_LSSU_FRMS_SZ_BIT,reg);
}
}
static __inline void
aft_lcfg_ss7_mode4096_cfg(u32 *reg, int lssu_size)
{
wan_set_bit(AFT_LCFG_SS7_MODE_BIT,reg);
if (lssu_size == 7){
wan_clear_bit(AFT_LCFG_SS7_LSSU_FRMS_SZ_BIT,reg);
}else{
wan_set_bit(AFT_LCFG_SS7_LSSU_FRMS_SZ_BIT,reg);
}
}
/*======================================================
* PER PORT
*
* AFT General DMA Registers
*
*=====================================================*/
#define AFT_DMA_CTRL_REG 0x200
#define AFT_TX_DMA_CTRL_REG 0x204
#define AFT_RX_DMA_CTRL_REG 0x208
#define AFT_ANALOG_DATA_MUX_CTRL_REG 0x20C
#define AFT_ANALOG_EC_CTRL_REG 0x210
# define AFT_DMACTRL_TDMV_RX_TOGGLE 14
# define AFT_DMACTRL_TDMV_TX_TOGGLE 15
# define AFT_DMACTRL_MAX_LOGIC_CH_SHIFT 16
# define AFT_DMACTRL_MAX_LOGIC_CH_MASK 0x1F
# define AFT_DMACTRL_GLOBAL_INTR_BIT 31
static __inline void
aft_dmactrl_set_max_logic_ch(u32 *reg, int max_logic_ch)
{
*reg&=~(AFT_DMACTRL_MAX_LOGIC_CH_MASK<<AFT_DMACTRL_MAX_LOGIC_CH_SHIFT);
max_logic_ch&=AFT_DMACTRL_MAX_LOGIC_CH_MASK;
*reg|=(max_logic_ch<<AFT_DMACTRL_MAX_LOGIC_CH_SHIFT);
}
static __inline u32
aft_dmactrl_get_max_logic_ch(u32 reg)
{
u32 max_logic_ch;
reg&=(AFT_DMACTRL_MAX_LOGIC_CH_MASK<<AFT_DMACTRL_MAX_LOGIC_CH_SHIFT);
max_logic_ch = reg >> AFT_DMACTRL_MAX_LOGIC_CH_SHIFT;
return max_logic_ch;
}
/*======================================================
* PER PORT
*
* AFT Control RAM DMA Registers
*
*=====================================================*/
#define AFT_CONTROL_RAM_ACCESS_BASE_REG 0x1000
# define AFT_CTRLRAM_LOGIC_CH_NUM_MASK 0x1F
# define AFT_CTRLRAM_LOGIC_CH_NUM_SHIFT 0
# define AFT_CTRLRAM_HDLC_MODE_BIT 7
# define AFT_CTRLRAM_HDLC_CRC_SIZE_BIT 8
# define AFT_CTRLRAM_HDLC_TXCH_RESET_BIT 9
# define AFT_CTRLRAM_HDLC_RXCH_RESET_BIT 10
# define AFT_CTRLRAM_SYNC_FST_TSLOT_BIT 11
# define AFT_CTRLRAM_SS7_ENABLE_BIT 12
# define AFT_CTRLRAM_DATA_MUX_ENABLE_BIT 13
# define AFT_CTRLRAM_SS7_FORCE_RX_BIT 14
# define AFT_CTRLRAM_FIFO_SIZE_SHIFT 16
# define AFT_CTRLRAM_FIFO_SIZE_MASK 0x1F
# define AFT_CTRLRAM_FIFO_BASE_SHIFT 24
# define AFT_CTRLRAM_FIFO_BASE_MASK 0x1F
static __inline void
aft_ctrlram_set_logic_ch(u32 *reg, int logic_ch)
{
*reg&=~(AFT_CTRLRAM_LOGIC_CH_NUM_MASK<<AFT_CTRLRAM_LOGIC_CH_NUM_SHIFT);
logic_ch&=AFT_CTRLRAM_LOGIC_CH_NUM_MASK;
*reg|=logic_ch;
}
static __inline void
aft_ctrlram_set_fifo_size(u32 *reg, int size)
{
*reg&=~(AFT_CTRLRAM_FIFO_SIZE_MASK<<AFT_CTRLRAM_FIFO_SIZE_SHIFT);
size&=AFT_CTRLRAM_FIFO_SIZE_MASK;
*reg|=(size<<AFT_CTRLRAM_FIFO_SIZE_SHIFT);
}
static __inline void
aft_ctrlram_set_fifo_base(u32 *reg, int base)
{
*reg&=~(AFT_CTRLRAM_FIFO_BASE_MASK<<AFT_CTRLRAM_FIFO_BASE_SHIFT);
base&=AFT_CTRLRAM_FIFO_BASE_MASK;
*reg|=(base<<AFT_CTRLRAM_FIFO_BASE_SHIFT);
}
/*======================================================
* PER PORT
*
* AFT DMA Chain RAM Registers
*
*=====================================================*/
#define AFT_DMA_CHAIN_RAM_BASE_REG 0x1800
# define AFT_DMACHAIN_TX_ADDR_CNT_MASK 0x0F
# define AFT_DMACHAIN_TX_ADDR_CNT_SHIFT 0
# define AFT_DMACHAIN_RX_ADDR_CNT_MASK 0x0F
# define AFT_DMACHAIN_RX_ADDR_CNT_SHIFT 8
# define AFT_DMACHAIN_FIFO_SIZE_MASK 0x1F
# define AFT_DMACHAIN_FIFO_SIZE_SHIFT 16
/* AFT_DMACHAIN_TDMV_SIZE Bit Map
* 00= 8byte size
* 01= 16byte size
* 10= 32byte size
* 11= 64byte size
*/
# define AFT_DMACHAIN_TDMV_SIZE_MASK 0x03
# define AFT_DMACHAIN_TDMV_SIZE_SHIFT 21
# define AFT_DMACHAIN_TDMV_ENABLE_BIT 23
# define AFT_DMACHAIN_FIFO_BASE_MASK 0x1F
# define AFT_DMACHAIN_FIFO_BASE_SHIFT 24
# define AFT_DMACHAIN_SS7_FORCE_RX 29
# define AFT_DMACHAIN_SS7_ENABLE_BIT 30
# define AFT_DMACHAIN_RX_SYNC_BIT 31
static __inline u32
aft_dmachain_get_tx_dma_addr(u32 reg)
{
reg=reg>>AFT_DMACHAIN_TX_ADDR_CNT_SHIFT;
reg&=AFT_DMACHAIN_TX_ADDR_CNT_MASK;
return reg;
}
static __inline void
aft_dmachain_set_tx_dma_addr(u32 *reg, int addr)
{
*reg&=~(AFT_DMACHAIN_TX_ADDR_CNT_MASK<<AFT_DMACHAIN_TX_ADDR_CNT_SHIFT);
addr&=AFT_DMACHAIN_TX_ADDR_CNT_MASK;
*reg|=addr<<AFT_DMACHAIN_TX_ADDR_CNT_SHIFT;
return;
}
static __inline u32
aft_dmachain_get_rx_dma_addr(u32 reg)
{
reg=reg>>AFT_DMACHAIN_RX_ADDR_CNT_SHIFT;
reg&=AFT_DMACHAIN_RX_ADDR_CNT_MASK;
return reg;
}
static __inline void
aft_dmachain_set_rx_dma_addr(u32 *reg, int addr)
{
*reg&=~(AFT_DMACHAIN_RX_ADDR_CNT_MASK<<AFT_DMACHAIN_RX_ADDR_CNT_SHIFT);
addr&=AFT_DMACHAIN_RX_ADDR_CNT_MASK;
*reg|=addr<<AFT_DMACHAIN_RX_ADDR_CNT_SHIFT;
return;
}
static __inline void
aft_dmachain_set_fifo_size(u32 *reg, int size)
{
*reg&=~(AFT_DMACHAIN_FIFO_SIZE_MASK<<AFT_DMACHAIN_FIFO_SIZE_SHIFT);
size&=AFT_DMACHAIN_FIFO_SIZE_MASK;
*reg|=(size<<AFT_DMACHAIN_FIFO_SIZE_SHIFT);
}
static __inline void
aft_dmachain_set_fifo_base(u32 *reg, int base)
{
*reg&=~(AFT_DMACHAIN_FIFO_BASE_MASK<<AFT_DMACHAIN_FIFO_BASE_SHIFT);
base&=AFT_DMACHAIN_FIFO_BASE_MASK;
*reg|=(base<<AFT_DMACHAIN_FIFO_BASE_SHIFT);
}
static __inline void
aft_dmachain_enable_tdmv_and_mtu_size(u32 *reg, int size)
{
*reg&=~(AFT_DMACHAIN_TDMV_SIZE_MASK<<AFT_DMACHAIN_TDMV_SIZE_SHIFT);
switch(size){
case 8:
size=0x00;
break;
case 16:
size=0x01;
break;
case 32:
size=0x02;
break;
case 40:
size=0x02;
break;
case 80:
size=0x03;
break;
default:
size=0x00;
break;
}
size&=AFT_DMACHAIN_TDMV_SIZE_MASK;
*reg|=(size<<AFT_DMACHAIN_TDMV_SIZE_SHIFT);
wan_set_bit(AFT_DMACHAIN_TDMV_ENABLE_BIT,reg);
}
/*======================================================
* PER PORT
*
* AFT DMA Descr RAM Registers
* AFT_SERIAL_LINE_CFG_REG
*=====================================================*/
#define AFT_SERIAL_LCFG_RTS_BIT 0
#define AFT_SERIAL_LCFG_DTR_BIT 1
#define AFT_SERIAL_LCFG_CTS_BIT 2
#define AFT_SERIAL_LCFG_DCD_BIT 3
#define AFT_SERIAL_LCFG_POLARITY_BIT 4
#define AFT_SERIAL_LCFG_SWMODE_BIT 5
#define AFT_SERIAL_LCFG_X21_MODE_BIT 6
#define AFT_SERIAL_LCFG_CTRL_BIT_MASK 0x0F
#define AFT_SERIAL_LCFG_BAUD_SHIFT 8
#define AFT_SERIAL_LCFG_BAUD_ORIG_MASK 0xFFFF
#define AFT_SERIAL_LCFG_BAUD_MASK 0xFFF
#define AFT_SERIAL_LCFG_CLK_OSC_SEL_BIT 23
#define AFT_SERIAL_LCFG_CLK_SRC_BIT 24
#define AFT_SERIAL_LCFG_CTS_INTR_EN_BIT 25
#define AFT_SERIAL_LCFG_DCD_INTR_EN_BIT 26
#define AFT_SERIAL_LCFG_IDLE_DET_BIT 27
#define AFT_SERIAL_LCFG_LCODING_MASK 0x07
#define AFT_SERIAL_LCFG_LCODING_SHIFT 28
#define AFT_SERIAL_LCFG_IFACE_TYPE_BIT 31
//This aft_serial_set_baud_rate wzs the original one before the implementation of RECOVERY CLOCK
//We are keeping it here just to be safe, in case of complaints from customers
#if 0
static __inline void
aft_serial_set_baud_rate(u32 *reg, u32 rate)
{
u32 div= (14745600/(2*rate));
u32 remain= (14745600%(2*rate));
if (!remain || (remain/2 > rate)) {
div=div-1;
}
}
if (div > 0) {
div=div-1;
}
if (div==0) {
DEBUG_EVENT("wanpipe: Error: Baud Rate Requested %i too high! Cannot be generated by hardware!\n",rate);
return -1;
}
*reg&=~(AFT_SERIAL_LCFG_BAUD_MASK<<AFT_SERIAL_LCFG_BAUD_SHIFT);
*reg|= ((div)&AFT_SERIAL_LCFG_BAUD_MASK)<<AFT_SERIAL_LCFG_BAUD_SHIFT;
wan_clear_bit(AFT_SERIAL_LCFG_CLK_OSC_SEL_BIT,&reg);
}
#endif
static __inline void
aft_serial_set_lcoding(u32 *reg, u32 coding)
{
*reg&=~(AFT_SERIAL_LCFG_LCODING_MASK<<AFT_SERIAL_LCFG_LCODING_SHIFT);
*reg|= (coding&AFT_SERIAL_LCFG_LCODING_MASK)<<AFT_SERIAL_LCFG_LCODING_SHIFT;
}
static __inline int
aft_serial_set_legacy_baud_rate(u32 *reg, u32 rate)
{
u32 div,remain;
div=14745600/(2*rate);
remain=14745600%(2*rate);
if (remain > rate) {
div=div+1;
}
if (div > 0) {
div=div-1;
}
if (div==0) {
DEBUG_ERROR("wanpipe: Error: Baud Rate Requested %i too high! Cannot be generated by hardware!\n",rate);
return -1;
}
*reg&=~(AFT_SERIAL_LCFG_BAUD_ORIG_MASK<<AFT_SERIAL_LCFG_BAUD_SHIFT);
*reg|= ((div)&AFT_SERIAL_LCFG_BAUD_ORIG_MASK)<<AFT_SERIAL_LCFG_BAUD_SHIFT;
wan_clear_bit(AFT_SERIAL_LCFG_CLK_OSC_SEL_BIT,reg);
return 0;
}
static __inline int
aft_serial_set_baud_rate(u32 *reg, u32 rate, u32 recovery)
{
u32 div,remain,freq,percent;
u32 acc1,acc2,div1,div2,round1,round2;
round1=round2=0;
if (rate == 0) {
return -1;
}
div=14745600/(2*rate);
remain=14745600%(2*rate);
DEBUG_TEST("DIV=%u REMAIN1 %u rate=%u\n",div,remain,rate);
if (remain > rate) {
div=div+1;
round1=1;
}
if (div > 0) {
div=div-1;
}
div1=div;
if (remain > rate) {
acc1= 2*rate - remain;
} else {
acc1=remain;
}
div=(12352000)/(2*rate);
remain=(12352000)%(2*rate);
DEBUG_TEST("DIV=%u REMAIN2 %u rate=%u\n",div,remain,rate);
if (remain > rate) {
div=div+1;
round2=1;
}
if (div > 0) {
div=div-1;
}
div2=div;
if (remain > rate) {
acc2= 2*rate - remain;
} else {
acc2=remain;
}
if (acc1 > acc2) {
wan_set_bit(AFT_SERIAL_LCFG_CLK_OSC_SEL_BIT,reg);
div=div2;
if (div == 0) {
DEBUG_ERROR("wanpipe: Error: Baud Rate Requested %i too high! Cannot be generated by hardware!\n", recovery?rate/32:rate);
return -1;
}
DEBUG_EVENT("NEW OSC: DIV=%i (DIV1=%i DIV2=%i) (ACC1=%i ACC2=%i)\n",div,div1,div2,acc1,acc2);
freq=12352000/(2*(div+round2+1));
percent=abs(freq-rate)*100/rate;
if (recovery) {
freq=freq/32;
rate=rate/32;
}
if (percent > 2) {
DEBUG_ERROR("wanpipe: Error: Baud Rate Requested %i cannot be generated by hardware! Actual=%i Tolerance=%i\n", rate,freq,percent);
return -EINVAL;
}
DEBUG_EVENT("wanpipe: Baud Rate Requested %i, Baud Rate Generated %i, Tolerance=%i\n",rate,freq,percent);
} else {
wan_clear_bit(AFT_SERIAL_LCFG_CLK_OSC_SEL_BIT,reg);
div=div1;
if (div == 0) {
DEBUG_ERROR("wanpipe: Error: Baud Rate Requested %i too high! Cannot be generated by hardware!\n", recovery?rate/32:rate);
return -1;
}
DEBUG_EVENT("ORIG OSC: DIV=%i (DIV1=%i DIV2=%i) (ACC1=%i ACC2=%i)\n",div,div1,div2,acc1,acc2);
freq=14745600/(2*(div+round1+1));
percent=abs(freq-rate)*100/rate;
if (recovery) {
freq=freq/32;
rate=rate/32;
}
if (percent > 2) {
DEBUG_ERROR("wanpipe: Error: Baud Rate Requested %i cannot be generated by hardware! Actual=%i Tolerance=%i\n", rate,freq,percent);
return -EINVAL;
}
DEBUG_EVENT("wanpipe: Baud Rate Requested %i, Baud Rate Generated %i, Tolerance=%i\n", rate,freq,percent);
}
*reg&=~(AFT_SERIAL_LCFG_BAUD_MASK<<AFT_SERIAL_LCFG_BAUD_SHIFT);
*reg|= ((div)&AFT_SERIAL_LCFG_BAUD_MASK)<<AFT_SERIAL_LCFG_BAUD_SHIFT;
DEBUG_EVENT(" OSC: DIV=%i REG=0x%08X \n",div,*reg);
return 0;
}
/*======================================================
* FREE RUNNING TIMER
*
* AFT_FREE_RUN_TIMER_CTRL_REG
*=====================================================*/
#define AFT_FREE_RUN_TIMER_DIVIDER_SHIFT 0
#define AFT_FREE_RUN_TIMER_DIVIDER_MASK 0x3F
#define AFT_FREE_RUN_TIMER_INTER_ENABLE_BIT 7
static __inline void
aft_free_running_timer_ctrl_set(u32 *reg, u32 divider)
{
*reg&=~(AFT_FREE_RUN_TIMER_DIVIDER_MASK<<AFT_FREE_RUN_TIMER_DIVIDER_SHIFT);
*reg|=(divider&AFT_FREE_RUN_TIMER_DIVIDER_MASK)<<AFT_FREE_RUN_TIMER_DIVIDER_SHIFT;
}
/*======================================================
* PER PORT
*
* AFT DMA Descr RAM Registers
*
*=====================================================*/
#define AFT_TX_DMA_LO_DESCR_BASE_REG 0x2000
#define AFT_TX_DMA_HI_DESCR_BASE_REG 0x2004
#define AFT_RX_DMA_LO_DESCR_BASE_REG 0x2008
#define AFT_RX_DMA_HI_DESCR_BASE_REG 0x200C
# define AFT_TXDMA_LO_ALIGN_MASK 0x03
# define AFT_TXDMA_LO_ALIGN_SHIFT 0
# define AFT_TXDMA_HI_DMA_LENGTH_MASK 0xFFF
# define AFT_TXDMA_HI_DMA_LENGTH_SHIFT 0
# define AFT_TXDMA_HI_DMA_STATUS_MASK 0x0F
# define AFT_TXDMA_HI_DMA_STATUS_SHIFT 11
# define AFT_TXDMA_HIDMASTATUS_PCI_M_ABRT 0
# define AFT_TXDMA_HIDMASTATUS_PCI_T_ABRT 1
# define AFT_TXDMA_HIDMASTATUS_PCI_DS_TOUT 2
# define AFT_TXDMA_HIDMASTATUS_PCI_RETRY 3
# define AFT_TXDMA_HI_SS7_FI_LS_TX_STATUS_BIT 19
# define AFT_TXDMA_HI_SS7_FISU_OR_LSSU_BIT 20
# define AFT_TXDMA_HI_SS7_FI_LS_FORCE_TX_BIT 21
# define AFT_TXDMA_HI_LAST_DESC_BIT 24
# define AFT_TXDMA_HI_INTR_DISABLE_BIT 27
# define AFT_TXDMA_HI_DMA_CMD_BIT 28
# define AFT_TXDMA_HI_EOF_BIT 29
# define AFT_TXDMA_HI_START_BIT 30
# define AFT_TXDMA_HI_GO_BIT 31
# define AFT_RXDMA_LO_ALIGN_MASK 0x03
# define AFT_RXDMA_LO_ALIGN_SHIFT 0
# define AFT_RXDMA_HI_DMA_LENGTH_MASK 0xFFF
# define AFT_RXDMA_HI_DMA_LENGTH_SHIFT 0
# define AFT_RXDMA_HI_DMA_STATUS_MASK 0x0F
# define AFT_RXDMA_HI_DMA_STATUS_SHIFT 11
# define AFT_RXDMA_HIDMASTATUS_PCI_M_ABRT 0
# define AFT_RXDMA_HIDMASTATUS_PCI_T_ABRT 1
# define AFT_RXDMA_HIDMASTATUS_PCI_DS_TOUT 2
# define AFT_RXDMA_HIDMASTATUS_PCI_RETRY 3
# define AFT_RXDMA_HI_IFT_INTR_ENB_BIT 15
# define AFT_RXDMA_HI_LAST_DESC_BIT 24
# define AFT_RXDMA_HI_FCS_ERR_BIT 25
# define AFT_RXDMA_HI_FRM_ABORT_BIT 26
# define AFT_RXDMA_HI_INTR_DISABLE_BIT 27
# define AFT_RXDMA_HI_DMA_CMD_BIT 28
# define AFT_RXDMA_HI_EOF_BIT 29
# define AFT_RXDMA_HI_START_BIT 30
# define AFT_RXDMA_HI_GO_BIT 31
static __inline void
aft_txdma_lo_set_alignment(u32 *reg, int align)
{
*reg&=~(AFT_TXDMA_LO_ALIGN_MASK<<AFT_TXDMA_LO_ALIGN_SHIFT);
align&=AFT_TXDMA_LO_ALIGN_MASK;
*reg|=(align<<AFT_TXDMA_LO_ALIGN_SHIFT);
}
static __inline u32
aft_txdma_lo_get_alignment(u32 reg)
{
reg=reg>>AFT_TXDMA_LO_ALIGN_SHIFT;
reg&=AFT_TXDMA_LO_ALIGN_MASK;
return reg;
}
static __inline void
aft_txdma_hi_set_dma_length(u32 *reg, int len, int align)
{
*reg&=~(AFT_TXDMA_HI_DMA_LENGTH_MASK<<AFT_TXDMA_HI_DMA_LENGTH_SHIFT);
len=(len>>2)+align;
len&=AFT_TXDMA_HI_DMA_LENGTH_MASK;
*reg|=(len<<AFT_TXDMA_HI_DMA_LENGTH_SHIFT);
}
static __inline u32
aft_txdma_hi_get_dma_length(u32 reg)
{
reg=reg>>AFT_TXDMA_HI_DMA_LENGTH_SHIFT;
reg&=AFT_TXDMA_HI_DMA_LENGTH_MASK;
reg=reg<<2;
return reg;
}
static __inline u32
aft_txdma_hi_get_dma_status(u32 reg)
{
reg=reg>>AFT_TXDMA_HI_DMA_STATUS_SHIFT;
reg&=AFT_TXDMA_HI_DMA_STATUS_MASK;
return reg;
}
static __inline void
aft_rxdma_lo_set_alignment(u32 *reg, int align)
{
*reg&=~(AFT_RXDMA_LO_ALIGN_MASK<<AFT_RXDMA_LO_ALIGN_SHIFT);
align&=AFT_RXDMA_LO_ALIGN_MASK;
*reg|=(align<<AFT_RXDMA_LO_ALIGN_SHIFT);
}
static __inline u32
aft_rxdma_lo_get_alignment(u32 reg)
{
reg=reg>>AFT_RXDMA_LO_ALIGN_SHIFT;
reg&=AFT_RXDMA_LO_ALIGN_MASK;
return reg;
}
static __inline void
aft_rxdma_hi_set_dma_length(u32 *reg, int len, int align)
{
*reg&=~(AFT_RXDMA_HI_DMA_LENGTH_MASK<<AFT_RXDMA_HI_DMA_LENGTH_SHIFT);
len=(len>>2)-align;
len&=AFT_RXDMA_HI_DMA_LENGTH_MASK;
*reg|=(len<<AFT_RXDMA_HI_DMA_LENGTH_SHIFT);
}
static __inline u32
aft_rxdma_hi_get_dma_length(u32 reg)
{
reg=reg>>AFT_RXDMA_HI_DMA_LENGTH_SHIFT;
reg&=AFT_RXDMA_HI_DMA_LENGTH_MASK;
reg=reg<<2;
return reg;
}
static __inline u32
aft_rxdma_hi_get_dma_status(u32 reg)
{
reg=reg>>AFT_RXDMA_HI_DMA_STATUS_SHIFT;
reg&=AFT_RXDMA_HI_DMA_STATUS_MASK;
return reg;
}
#define FIFO_32B 0x00
#define FIFO_64B 0x01
#define FIFO_128B 0x03
#define FIFO_256B 0x07
#define FIFO_512B 0x0F
#define FIFO_1024B 0x1F
/*===============================================
*/
/* Default Active DMA channel used by the
* DMA Engine */
#define AFT_DEFLT_ACTIVE_CH 0
#define MAX_AFT_TX_DMA_SIZE 0xFFFF
#define MIN_WP_PRI_MTU 8
#define DEFAULT_WP_PRI_MTU 1500
/* Maximum MTU for AFT card
* 8192-4=8188. This is a hardware
* limitation.
*/
#define MAX_WP_PRI_MTU 8188
#define MAX_DMA_PER_CH 20
#define MIN_DMA_PER_CH 2
#define WP_MAX_FIFO_FRAMES 7
#define AFT_DEFAULT_DATA_MUX_MAP 0x01234567
enum {
WAN_AFT_RED,
WAN_AFT_GREEN
};
enum {
WAN_AFT_OFF,
WAN_AFT_ON
};
/*==========================================
* Board CPLD Interface Section
*
*=========================================*/
#define PMC_CONTROL_REG 0x00
/* Used to reset the pcm
* front end
* 0: Reset Enable
* 1: Normal Operation
*/
#define PMC_RESET_BIT 0
/* Used to set the pmc clock
* source:
* 0 = E1
* 1 = T1
*/
#define PMC_CLOCK_SELECT 1
#define LED_CONTROL_REG 0x01
#define JP8_VALUE 0x02
#define JP7_VALUE 0x01
#define SW0_VALUE 0x04
#define SW1_VALUE 0x08
#define AFT_CUSTOMER_CPLD_ID_REG 0xA0
#define AFT_CUSTOMER_CPLD_ID_TE1_SERIAL_OFFSET 0x02
#define AFT_CUSTOMER_CPLD_ID_ANALOG_OFFSET 0x0A
#define BRI_CPLD0_ECHO_RESET_BIT 0
#define BRI_CPLD0_NETWORK_SYNC_OUT_BIT 2
/* -------------------------------------- */
#define WRITE_DEF_SECTOR_DSBL 0x01
#define FRONT_END_TYPE_MASK 0x38
#define MEMORY_TYPE_SRAM 0x00
#define MEMORY_TYPE_FLASH 0x01
#define MASK_MEMORY_TYPE_SRAM 0x10
#define MASK_MEMORY_TYPE_FLASH 0x20
#define BIT_A18_SECTOR_SA4_SA7 0x20
#define USER_SECTOR_START_ADDR 0x40000
#define MAX_TRACE_QUEUE 500
#define HDLC_FREE_LOGIC_CH 0x1F
#define AFT_DEFLT_ACTIVE_CH 0
static __inline unsigned short aft_valid_mtu(unsigned short mtu)
{
unsigned short new_mtu;
if (mtu <= 128){
new_mtu = 256;
}else if (mtu <= 256){
new_mtu = 512;
}else if (mtu <= 512){
new_mtu = 1024;
}else if (mtu <= 1024){
new_mtu = 2048;
}else if (mtu <= 2048){
new_mtu = 4096;
}else if (mtu <= 4096){
new_mtu = 8188;
}else if (mtu <= 8188){
new_mtu = 8188;
}else{
return 0;
}
#if defined(__FreeBSD__)
if (new_mtu > MCLBYTES - 16){
new_mtu = MCLBYTES-16;
}
#endif
return new_mtu;
}
static __inline unsigned short aft_dma_buf_bits(unsigned short dma_bufs)
{
if (dma_bufs < 2){
return 0;
}else if (dma_bufs < 3){
return 1;
}else if (dma_bufs < 5){
return 2;
}else if (dma_bufs < 9){
return 3;
}else if (dma_bufs < 17){
return 4;
}else{
return 0;
}
}
static __inline void
aft_set_led_b601(unsigned int color, int led_pos, int on, u32 *reg)
{
if (color == WAN_AFT_RED){
if (on == WAN_AFT_OFF){
wan_clear_bit(AFT_LCFG_B601_RED_LED_BIT,reg);
}else{
wan_set_bit(AFT_LCFG_B601_RED_LED_BIT,reg);
}
}else{
if (on == WAN_AFT_OFF){
wan_clear_bit(AFT_LCFG_B601_GREEN_LED_BIT,reg);
}else{
wan_set_bit(AFT_LCFG_B601_GREEN_LED_BIT,reg);
}
}
}
static __inline void
aft_set_led(unsigned int color, int led_pos, int on, u32 *reg)
{
if (color == WAN_AFT_RED){
if (on == WAN_AFT_OFF){
wan_clear_bit(AFT_LCFG_RED_LED_BIT,reg);
}else{
wan_set_bit(AFT_LCFG_RED_LED_BIT,reg);
}
}else{
if (on == WAN_AFT_OFF){
wan_clear_bit(AFT_LCFG_GREEN_LED_BIT,reg);
}else{
wan_set_bit(AFT_LCFG_GREEN_LED_BIT,reg);
}
}
}
static __inline int
aft_get_num_of_slots(u32 total_slots, u32 chan_slots)
{
int num_of_slots=0;
u32 i;
for (i=0;i<total_slots;i++){
if (wan_test_bit(i,&chan_slots)){
num_of_slots++;
}
}
return num_of_slots;
}
#define MAX_AFT_HW_DEV 22
typedef struct aft_hw_dev{
int init;
int (*aft_global_chip_config)(sdla_t *card);
int (*aft_global_chip_unconfig)(sdla_t *card);
int (*aft_chip_config)(sdla_t *card, wandev_conf_t *);
int (*aft_chip_unconfig)(sdla_t *card);
int (*aft_chan_config)(sdla_t *card, void *chan);
int (*aft_chan_unconfig)(sdla_t *card, void *chan);
int (*aft_led_ctrl)(sdla_t *card, int, int, int);
int (*aft_test_sync)(sdla_t *card, int);
unsigned char (*aft_read_fe)(sdla_t* card, unsigned short off);
int (*aft_write_fe)(sdla_t *card, unsigned short off, unsigned char value);
unsigned char (*aft_read_cpld)(sdla_t *card, unsigned short cpld_off);
int (*aft_write_cpld)(sdla_t *card, unsigned short cpld_off, u_int16_t cpld_data);
void (*aft_fifo_adjust)(sdla_t *card, u32 level);
int (*aft_check_ec_security)(sdla_t *card);
}aft_hw_dev_t;
extern aft_hw_dev_t aft_hwdev[MAX_AFT_HW_DEV];
#define ASSERT_AFT_HWDEV(type) \
if (type >= MAX_AFT_HW_DEV){ \
DEBUG_EVENT("%s:%d: Critical Invalid AFT HW DEV Type %d\n", \
__FUNCTION__,__LINE__,type); \
return -EINVAL; \
}\
if (!wan_test_bit(0,&aft_hwdev[type].init)) { \
DEBUG_EVENT("%s:%d: Critical AFT HW DEV Type %d not initialized\n", \
__FUNCTION__,__LINE__,type); \
return -EINVAL; \
}
#define ASSERT_AFT_HWDEV_VOID(type) \
if (type >= MAX_AFT_HW_DEV){ \
DEBUG_EVENT("%s:%d: Critical Invalid AFT HW DEV Type %d\n", \
__FUNCTION__,__LINE__,type); \
return; \
}\
if (!aft_hwdev[type] || !wan_test_bit(0,&aft_hwdev[type].init)) { \
DEBUG_EVENT("%s:%d: Critical AFT HW DEV Type %d not initialized\n", \
__FUNCTION__,__LINE__,type); \
return; \
}
#endif /* WAN_KERNEL */
#endif