Commit 3516350a authored by Michael Hunold's avatar Michael Hunold Committed by Linus Torvalds

[PATCH] DVB: add frontend #2

- [DVB] add new driver for mobile DVB-T demodulator DiBcom 3000-MB
- [DVB] add new drivers to Makefile
Signed-off-by: default avatarMichael Hunold <hunold@linuxtv.org>
Signed-off-by: default avatarAndrew Morton <akpm@osdl.org>
Signed-off-by: default avatarLinus Torvalds <torvalds@osdl.org>
parent 7ec8ca4b
......@@ -12,6 +12,7 @@ obj-$(CONFIG_DVB_ATMEL_AT76C651) += at76c651.o
obj-$(CONFIG_DVB_CX24110) += cx24110.o
obj-$(CONFIG_DVB_GRUNDIG_29504_491) += grundig_29504-491.o
obj-$(CONFIG_DVB_GRUNDIG_29504_401) += grundig_29504-401.o
obj-$(CONFIG_DVB_DIB3000MB) += dib3000mb.o
obj-$(CONFIG_DVB_MT312) += mt312.o
obj-$(CONFIG_DVB_VES1820) += ves1820.o
obj-$(CONFIG_DVB_VES1X93) += ves1x93.o
......@@ -19,4 +20,5 @@ obj-$(CONFIG_DVB_TDA1004X) += tda1004x.o
obj-$(CONFIG_DVB_SP887X) += sp887x.o
obj-$(CONFIG_DVB_NXT6000) += nxt6000.o
obj-$(CONFIG_DVB_MT352) += mt352.o
obj-$(CONFIG_DVB_CX22702) += cx22702.o
/*
* Frontend driver for mobile DVB-T demodulator DiBcom 3000-MB
* DiBcom (http://www.dibcom.fr/)
*
* Copyright (C) 2004 Patrick Boettcher (patrick.boettcher@desy.de)
*
* based on GPL code from DibCom, which has
*
* Copyright (C) 2004 Amaury Demol for DiBcom (ademol@dibcom.fr)
*
* 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, version 2.
*
* Acknowledgements
*
* Amaury Demol (ademol@dibcom.fr) from DiBcom for providing specs and driver
* sources, on which this driver (and the dvb-dibusb) are based.
*
* see Documentation/dvb/README.dibusb for more information
*
*/
#include <linux/config.h>
#include <linux/kernel.h>
#include <linux/version.h>
#include <linux/module.h>
#include <linux/moduleparam.h>
#include <linux/init.h>
#include <linux/delay.h>
#include "dvb_frontend.h"
#include "dib3000mb.h"
/* debug */
#ifdef CONFIG_DVB_DIBCOM_DEBUG
#define dprintk_new(level,args...) \
do { if ((debug & level)) { printk(args); } } while (0)
static int debug;
module_param(debug, int, 0x644);
MODULE_PARM_DESC(debug, "set debugging level (1=info,2=xfer,4=alotmore (|-able)).");
#else
#define dprintk_new(args...)
#endif
#define deb_info(args...) dprintk_new(0x01,args)
#define deb_xfer(args...) dprintk_new(0x02,args)
#define deb_alot(args...) dprintk_new(0x04,args)
/* Version information */
#define DRIVER_VERSION "0.1"
#define DRIVER_DESC "DiBcom 3000-MB DVB-T frontend"
#define DRIVER_AUTHOR "Patrick Boettcher, patrick.boettcher@desy.de"
struct dib3000mb_state {
struct i2c_client *i2c;
struct dvb_adapter *dvb;
u16 manufactor_id;
u16 device_id;
};
static struct dvb_frontend_info dib3000mb_info = {
.name = "DiBcom 3000-MB DVB-T frontend",
.type = FE_OFDM,
.frequency_min = 44250000,
.frequency_max = 867250000,
.frequency_stepsize = 62500,
.caps = FE_CAN_INVERSION_AUTO |
FE_CAN_FEC_1_2 | FE_CAN_FEC_2_3 | FE_CAN_FEC_3_4 |
FE_CAN_FEC_5_6 | FE_CAN_FEC_7_8 | FE_CAN_FEC_AUTO |
FE_CAN_QPSK | FE_CAN_QAM_16 | FE_CAN_QAM_64 | FE_CAN_QAM_AUTO |
FE_CAN_TRANSMISSION_MODE_AUTO |
FE_CAN_GUARD_INTERVAL_AUTO |
FE_CAN_HIERARCHY_AUTO,
};
#define rd(reg) dib3000mb_read_reg(state->i2c,reg)
#define wr(reg,val) if (dib3000mb_write_reg(state->i2c,reg,val)) \
{ err("while sending 0x%04x to 0x%04x.",val,reg); return -EREMOTEIO; }
#define wr_foreach(a,v) { int i; \
deb_alot("sizeof: %d %d\n",sizeof(a),sizeof(v));\
for (i=0; i < sizeof(a)/sizeof(u16); i++) \
wr(a[i],v[i]); \
}
static u16 dib3000mb_read_reg(struct i2c_client *i2c, u16 reg)
{
u8 wb[] = { ((reg >> 8) | 0x80) & 0xff, reg & 0xff };
u8 rb[2];
struct i2c_msg msg[] = {
{ .addr = i2c->addr, .flags = 0, .buf = wb, .len = 2 },
{ .addr = i2c->addr, .flags = I2C_M_RD, .buf = rb, .len = 2 },
};
deb_alot("reading from i2c bus (reg: %d)\n",reg);
if (i2c_transfer(i2c->adapter,msg,2) != 2)
deb_alot("i2c read error\n");
return (rb[0] << 8) | rb[1];
}
static int dib3000mb_write_reg(struct i2c_client *i2c,u16 reg, u16 val)
{
u8 b[] = {
(reg >> 8) & 0xff, reg & 0xff,
(val >> 8) & 0xff, val & 0xff,
};
struct i2c_msg msg[] = { { .addr = i2c->addr, .flags = 0, .buf = b, .len = 4 } };
deb_alot("writing to i2c bus (reg: %d, val: %d)\n",reg,val);
return i2c_transfer(i2c->adapter,msg,1) != 1 ? -EREMOTEIO : 0 ;
}
static int dib3000mb_tuner_thomson_cable_eu(struct dib3000mb_state *state,
u32 freq)
{
u32 tfreq = (freq + 36125000) / 62500;
unsigned int addr;
int vu,p0,p1,p2;
if (freq > 403250000)
vu = 1, p2 = 1, p1 = 0, p0 = 1;
else if (freq > 115750000)
vu = 0, p2 = 1, p1 = 1, p0 = 0;
else if (freq > 44250000)
vu = 0, p2 = 0, p1 = 1, p0 = 1;
else
return -EINVAL;
/* TODO better solution for i2c->addr handling */
addr = state->i2c->addr;
state->i2c->addr = DIB3000MB_TUNER_ADDR_DEFAULT;
wr(tfreq & 0x7fff,(0x8e << 8) + ((vu << 7) | (p2 << 2) | (p1 << 1) | p0) );
state->i2c->addr = addr;
return 0;
}
static int dib3000mb_get_frontend(struct dib3000mb_state *state,
struct dvb_frontend_parameters *fep)
{
struct dvb_ofdm_parameters *ofdm = &fep->u.ofdm;
fe_code_rate_t *cr;
u16 tps_val;
int inv_test1,inv_test2;
u32 dds_val, threshold = 0x800000;
if (!rd(DIB3000MB_REG_TPS_LOCK))
return -EINVAL;
dds_val = ((rd(DIB3000MB_REG_DDS_VALUE_MSB) & 0xff) << 16) + rd(DIB3000MB_REG_DDS_VALUE_LSB);
if (dds_val & threshold)
inv_test1 = 0;
else if (dds_val == threshold)
inv_test1 = 1;
else
inv_test1 = 2;
dds_val = ((rd(DIB3000MB_REG_DDS_FREQ_MSB) & 0xff) << 16) + rd(DIB3000MB_REG_DDS_FREQ_LSB);
if (dds_val & threshold)
inv_test2 = 0;
else if (dds_val == threshold)
inv_test2 = 1;
else
inv_test2 = 2;
fep->inversion =
((inv_test2 == 2) && (inv_test1==1 || inv_test1==0))
||
((inv_test2 == 0) && (inv_test1==1 || inv_test1==2));
deb_info("inversion %d %d, %d\n",inv_test2,inv_test1, fep->inversion);
switch ((tps_val = rd(DIB3000MB_REG_TPS_QAM))) {
case DIB3000MB_QAM_QPSK:
deb_info("QPSK ");
ofdm->constellation = QPSK;
break;
case DIB3000MB_QAM_QAM16:
deb_info("QAM16 ");
ofdm->constellation = QAM_16;
break;
case DIB3000MB_QAM_QAM64:
deb_info("QAM64 ");
ofdm->constellation = QAM_64;
break;
default:
err("Unexpected constellation returned by TPS (%d)",tps_val);
break;
}
deb_info("TPS: %d\n",tps_val);
if (rd(DIB3000MB_REG_TPS_HRCH)) {
deb_info("HRCH ON\n");
tps_val = rd(DIB3000MB_REG_TPS_CODE_RATE_LP);
cr = &ofdm->code_rate_LP;
ofdm->code_rate_HP = FEC_NONE;
switch ((tps_val = rd(DIB3000MB_REG_TPS_VIT_ALPHA))) {
case DIB3000MB_VIT_ALPHA_OFF:
deb_info("HIERARCHY_NONE ");
ofdm->hierarchy_information = HIERARCHY_NONE;
break;
case DIB3000MB_VIT_ALPHA_1:
deb_info("HIERARCHY_1 ");
ofdm->hierarchy_information = HIERARCHY_1;
break;
case DIB3000MB_VIT_ALPHA_2:
deb_info("HIERARCHY_2 ");
ofdm->hierarchy_information = HIERARCHY_2;
break;
case DIB3000MB_VIT_ALPHA_4:
deb_info("HIERARCHY_4 ");
ofdm->hierarchy_information = HIERARCHY_4;
break;
default:
err("Unexpected ALPHA value returned by TPS (%d)",tps_val);
}
deb_info("TPS: %d\n",tps_val);
} else {
deb_info("HRCH OFF\n");
tps_val = rd(DIB3000MB_REG_TPS_CODE_RATE_HP);
cr = &ofdm->code_rate_HP;
ofdm->code_rate_LP = FEC_NONE;
ofdm->hierarchy_information = HIERARCHY_NONE;
}
switch (tps_val) {
case DIB3000MB_FEC_1_2:
deb_info("FEC_1_2 ");
*cr = FEC_1_2;
break;
case DIB3000MB_FEC_2_3:
deb_info("FEC_2_3 ");
*cr = FEC_2_3;
break;
case DIB3000MB_FEC_3_4:
deb_info("FEC_3_4 ");
*cr = FEC_3_4;
break;
case DIB3000MB_FEC_5_6:
deb_info("FEC_5_6 ");
*cr = FEC_4_5;
break;
case DIB3000MB_FEC_7_8:
deb_info("FEC_7_8 ");
*cr = FEC_7_8;
break;
default:
err("Unexpected FEC returned by TPS (%d)",tps_val);
break;
}
deb_info("TPS: %d\n",tps_val);
switch ((tps_val = rd(DIB3000MB_REG_TPS_GUARD_TIME))) {
case DIB3000MB_GUARD_TIME_1_32:
deb_info("GUARD_INTERVAL_1_32 ");
ofdm->guard_interval = GUARD_INTERVAL_1_32;
break;
case DIB3000MB_GUARD_TIME_1_16:
deb_info("GUARD_INTERVAL_1_16 ");
ofdm->guard_interval = GUARD_INTERVAL_1_16;
break;
case DIB3000MB_GUARD_TIME_1_8:
deb_info("GUARD_INTERVAL_1_8 ");
ofdm->guard_interval = GUARD_INTERVAL_1_8;
break;
case DIB3000MB_GUARD_TIME_1_4:
deb_info("GUARD_INTERVAL_1_4 ");
ofdm->guard_interval = GUARD_INTERVAL_1_4;
break;
default:
err("Unexpected Guard Time returned by TPS (%d)",tps_val);
break;
}
deb_info("TPS: %d\n",tps_val);
switch ((tps_val = rd(DIB3000MB_REG_TPS_FFT))) {
case DIB3000MB_FFT_2K:
deb_info("TRANSMISSION_MODE_2K ");
ofdm->transmission_mode = TRANSMISSION_MODE_2K;
break;
case DIB3000MB_FFT_8K:
deb_info("TRANSMISSION_MODE_8K ");
ofdm->transmission_mode = TRANSMISSION_MODE_8K;
break;
default:
err("unexpected transmission mode return by TPS (%d)",tps_val);
}
deb_info("TPS: %d\n",tps_val);
return 0;
}
static int dib3000mb_set_frontend(struct dib3000mb_state *state,
struct dvb_frontend_parameters *fep, int tuner);
static int dib3000mb_fe_read_search_status(struct dib3000mb_state *state)
{
u16 irq;
struct dvb_frontend_parameters fep;
irq = rd(DIB3000MB_REG_AS_IRQ_PENDING);
if (irq & 0x02) {
if (rd(DIB3000MB_REG_LOCK2_VALUE) & 0x01) {
if (dib3000mb_get_frontend(state,&fep) == 0) {
deb_info("reading tuning data from frontend succeeded.\n");
return dib3000mb_set_frontend(state,&fep,0) == 0;
} else {
deb_info("reading tuning data failed -> tuning failed.\n");
return 0;
}
} else {
deb_info("AS IRQ was pending, but LOCK2 was not & 0x01.\n");
return 0;
}
} else if (irq & 0x01) {
deb_info("Autosearch failed.\n");
return 0;
}
return -1;
}
static int dib3000mb_set_frontend(struct dib3000mb_state *state,
struct dvb_frontend_parameters *fep, int tuner)
{
struct dvb_ofdm_parameters *ofdm = &fep->u.ofdm;
fe_code_rate_t fe_cr;
int search_state,seq;
if (tuner) {
wr(DIB3000MB_REG_TUNER,
DIB3000MB_ACTIVATE_TUNER_XFER( DIB3000MB_TUNER_ADDR_DEFAULT ) );
dib3000mb_tuner_thomson_cable_eu(state,fep->frequency);
/* wait for tuner */
msleep(1);
wr(DIB3000MB_REG_TUNER,
DIB3000MB_DEACTIVATE_TUNER_XFER( DIB3000MB_TUNER_ADDR_DEFAULT ) );
switch (ofdm->bandwidth) {
case BANDWIDTH_8_MHZ:
case BANDWIDTH_AUTO:
wr_foreach(dib3000mb_reg_timing_freq,dib3000mb_timing_freq[2]);
wr_foreach(dib3000mb_reg_bandwidth,dib3000mb_bandwidth_8mhz);
break;
case BANDWIDTH_7_MHZ:
wr_foreach(dib3000mb_reg_timing_freq,dib3000mb_timing_freq[1]);
wr_foreach(dib3000mb_reg_bandwidth,dib3000mb_bandwidth_7mhz);
break;
case BANDWIDTH_6_MHZ:
wr_foreach(dib3000mb_reg_timing_freq,dib3000mb_timing_freq[0]);
wr_foreach(dib3000mb_reg_bandwidth,dib3000mb_bandwidth_6mhz);
break;
default:
err("unkown bandwidth value.");
return -EINVAL;
break;
}
}
wr(DIB3000MB_REG_LOCK1_MASK,DIB3000MB_LOCK1_SEARCH_4);
switch (ofdm->transmission_mode) {
case TRANSMISSION_MODE_2K:
wr(DIB3000MB_REG_FFT,DIB3000MB_FFT_2K);
break;
case TRANSMISSION_MODE_8K:
wr(DIB3000MB_REG_FFT,DIB3000MB_FFT_8K);
break;
case TRANSMISSION_MODE_AUTO:
wr(DIB3000MB_REG_FFT,DIB3000MB_FFT_AUTO);
break;
default:
return -EINVAL;
}
switch (ofdm->guard_interval) {
case GUARD_INTERVAL_1_32:
wr(DIB3000MB_REG_GUARD_TIME,DIB3000MB_GUARD_TIME_1_32);
break;
case GUARD_INTERVAL_1_16:
wr(DIB3000MB_REG_GUARD_TIME,DIB3000MB_GUARD_TIME_1_16);
break;
case GUARD_INTERVAL_1_8:
wr(DIB3000MB_REG_GUARD_TIME,DIB3000MB_GUARD_TIME_1_8);
break;
case GUARD_INTERVAL_1_4:
wr(DIB3000MB_REG_GUARD_TIME,DIB3000MB_GUARD_TIME_1_4);
break;
case GUARD_INTERVAL_AUTO:
wr(DIB3000MB_REG_GUARD_TIME,DIB3000MB_GUARD_TIME_AUTO);
break;
default:
return -EINVAL;
}
switch (fep->inversion) {
case INVERSION_OFF:
wr(DIB3000MB_REG_DDS_INV,DIB3000MB_DDS_INV_OFF);
break;
case INVERSION_AUTO:
case INVERSION_ON:
wr(DIB3000MB_REG_DDS_INV,DIB3000MB_DDS_INV_ON);
break;
default:
return -EINVAL;
}
switch (ofdm->constellation) {
case QPSK:
wr(DIB3000MB_REG_QAM,DIB3000MB_QAM_QPSK);
break;
case QAM_16:
wr(DIB3000MB_REG_QAM,DIB3000MB_QAM_QAM16);
break;
case QAM_64:
wr(DIB3000MB_REG_QAM,DIB3000MB_QAM_QAM64);
break;
case QAM_AUTO:
break;
default:
return -EINVAL;
}
switch (ofdm->hierarchy_information) {
case HIERARCHY_NONE:
case HIERARCHY_1:
wr(DIB3000MB_REG_VIT_ALPHA,DIB3000MB_VIT_ALPHA_1);
break;
case HIERARCHY_2:
wr(DIB3000MB_REG_VIT_ALPHA,DIB3000MB_VIT_ALPHA_2);
break;
case HIERARCHY_4:
wr(DIB3000MB_REG_VIT_ALPHA,DIB3000MB_VIT_ALPHA_4);
break;
case HIERARCHY_AUTO:
wr(DIB3000MB_REG_VIT_ALPHA,DIB3000MB_VIT_ALPHA_AUTO);
break;
default:
return -EINVAL;
}
if (ofdm->hierarchy_information == HIERARCHY_NONE) {
wr(DIB3000MB_REG_VIT_HRCH,DIB3000MB_VIT_HRCH_OFF);
wr(DIB3000MB_REG_VIT_HP,DIB3000MB_VIT_HP);
fe_cr = ofdm->code_rate_HP;
} else {
wr(DIB3000MB_REG_VIT_HRCH,DIB3000MB_VIT_HRCH_ON);
wr(DIB3000MB_REG_VIT_HP,DIB3000MB_VIT_LP);
fe_cr = ofdm->code_rate_LP;
}
switch (fe_cr) {
case FEC_1_2:
wr(DIB3000MB_REG_VIT_CODE_RATE,DIB3000MB_FEC_1_2);
break;
case FEC_2_3:
wr(DIB3000MB_REG_VIT_CODE_RATE,DIB3000MB_FEC_2_3);
break;
case FEC_3_4:
wr(DIB3000MB_REG_VIT_CODE_RATE,DIB3000MB_FEC_3_4);
break;
case FEC_5_6:
wr(DIB3000MB_REG_VIT_CODE_RATE,DIB3000MB_FEC_5_6);
break;
case FEC_7_8:
wr(DIB3000MB_REG_VIT_CODE_RATE,DIB3000MB_FEC_7_8);
break;
case FEC_NONE:
case FEC_AUTO:
break;
default:
return -EINVAL;
}
seq = dib3000mb_seq
[ofdm->transmission_mode == TRANSMISSION_MODE_AUTO]
[ofdm->guard_interval == GUARD_INTERVAL_AUTO]
[fep->inversion == INVERSION_AUTO];
deb_info("seq? %d\n",seq);
wr(DIB3000MB_REG_SEQ,seq);
wr(DIB3000MB_REG_ISI,seq ? DIB3000MB_ISI_INHIBIT : DIB3000MB_ISI_ACTIVATE);
if (ofdm->transmission_mode == TRANSMISSION_MODE_2K) {
if (ofdm->guard_interval == GUARD_INTERVAL_1_8) {
wr(DIB3000MB_REG_SYNC_IMPROVEMENT,DIB3000MB_SYNC_IMPROVE_2K_1_8);
} else {
wr(DIB3000MB_REG_SYNC_IMPROVEMENT,DIB3000MB_SYNC_IMPROVE_DEFAULT);
}
wr(DIB3000MB_REG_UNK_121,DIB3000MB_UNK_121_2K);
} else {
wr(DIB3000MB_REG_UNK_121,DIB3000MB_UNK_121_DEFAULT);
}
wr(DIB3000MB_REG_MOBILE_ALGO,DIB3000MB_MOBILE_ALGO_OFF);
wr(DIB3000MB_REG_MOBILE_MODE_QAM,DIB3000MB_MOBILE_MODE_QAM_OFF);
wr(DIB3000MB_REG_MOBILE_MODE,DIB3000MB_MOBILE_MODE_OFF);
wr_foreach(dib3000mb_reg_agc_bandwidth,dib3000mb_agc_bandwidth_high);
wr(DIB3000MB_REG_ISI,DIB3000MB_ISI_ACTIVATE);
wr(DIB3000MB_REG_RESTART,DIB3000MB_RESTART_AGC+DIB3000MB_RESTART_CTRL);
wr(DIB3000MB_REG_RESTART,DIB3000MB_RESTART_OFF);
/* wait for AGC lock */
msleep(70);
wr_foreach(dib3000mb_reg_agc_bandwidth,dib3000mb_agc_bandwidth_low);
/* something has to be auto searched */
if (ofdm->constellation == QAM_AUTO ||
ofdm->hierarchy_information == HIERARCHY_AUTO ||
fe_cr == FEC_AUTO ||
fep->inversion == INVERSION_AUTO) {
deb_info("autosearch enabled.\n");
wr(DIB3000MB_REG_ISI,DIB3000MB_ISI_INHIBIT);
wr(DIB3000MB_REG_RESTART,DIB3000MB_RESTART_AUTO_SEARCH);
wr(DIB3000MB_REG_RESTART,DIB3000MB_RESTART_OFF);
while ((search_state = dib3000mb_fe_read_search_status(state)) < 0);
return search_state ? 0 : -EINVAL;
} else {
wr(DIB3000MB_REG_RESTART,DIB3000MB_RESTART_CTRL);
wr(DIB3000MB_REG_RESTART,DIB3000MB_RESTART_OFF);
msleep(70);
}
return 0;
}
static int dib3000mb_fe_init(struct dib3000mb_state *state,int mobile_mode)
{
wr(DIB3000MB_REG_POWER_CONTROL,DIB3000MB_POWER_UP);
wr(DIB3000MB_REG_RESTART, DIB3000MB_RESTART_AGC);
wr(DIB3000MB_REG_RESET_DEVICE,DIB3000MB_RESET_DEVICE);
wr(DIB3000MB_REG_RESET_DEVICE,DIB3000MB_RESET_DEVICE_RST);
wr(DIB3000MB_REG_CLOCK,DIB3000MB_CLOCK_DEFAULT);
wr(DIB3000MB_REG_ELECT_OUT_MODE,DIB3000MB_ELECT_OUT_MODE_ON);
wr(DIB3000MB_REG_QAM,DIB3000MB_QAM_RESERVED);
wr(DIB3000MB_REG_VIT_ALPHA,DIB3000MB_VIT_ALPHA_AUTO);
wr(DIB3000MB_REG_DDS_FREQ_MSB,DIB3000MB_DDS_FREQ_MSB);
wr(DIB3000MB_REG_DDS_FREQ_LSB,DIB3000MB_DDS_FREQ_LSB);
wr_foreach(dib3000mb_reg_timing_freq,dib3000mb_timing_freq[2]);
wr_foreach(dib3000mb_reg_impulse_noise,
dib3000mb_impulse_noise_values[DIB3000MB_IMPNOISE_OFF]);
wr_foreach(dib3000mb_reg_agc_gain,dib3000mb_default_agc_gain);
wr(DIB3000MB_REG_PHASE_NOISE,DIB3000MB_PHASE_NOISE_DEFAULT);
wr_foreach(dib3000mb_reg_phase_noise, dib3000mb_default_noise_phase);
wr_foreach(dib3000mb_reg_lock_duration,dib3000mb_default_lock_duration);
wr_foreach(dib3000mb_reg_agc_bandwidth,dib3000mb_agc_bandwidth_low);
wr(DIB3000MB_REG_LOCK0_MASK,DIB3000MB_LOCK0_DEFAULT);
wr(DIB3000MB_REG_LOCK1_MASK,DIB3000MB_LOCK1_SEARCH_4);
wr(DIB3000MB_REG_LOCK2_MASK,DIB3000MB_LOCK2_DEFAULT);
wr(DIB3000MB_REG_SEQ,dib3000mb_seq[1][1][1]);
wr_foreach(dib3000mb_reg_bandwidth,dib3000mb_bandwidth_8mhz);
wr(DIB3000MB_REG_UNK_68,DIB3000MB_UNK_68);
wr(DIB3000MB_REG_UNK_69,DIB3000MB_UNK_69);
wr(DIB3000MB_REG_UNK_71,DIB3000MB_UNK_71);
wr(DIB3000MB_REG_UNK_77,DIB3000MB_UNK_77);
wr(DIB3000MB_REG_UNK_78,DIB3000MB_UNK_78);
wr(DIB3000MB_REG_ISI,DIB3000MB_ISI_INHIBIT);
wr(DIB3000MB_REG_UNK_92,DIB3000MB_UNK_92);
wr(DIB3000MB_REG_UNK_96,DIB3000MB_UNK_96);
wr(DIB3000MB_REG_UNK_97,DIB3000MB_UNK_97);
wr(DIB3000MB_REG_UNK_106,DIB3000MB_UNK_106);
wr(DIB3000MB_REG_UNK_107,DIB3000MB_UNK_107);
wr(DIB3000MB_REG_UNK_108,DIB3000MB_UNK_108);
wr(DIB3000MB_REG_UNK_122,DIB3000MB_UNK_122);
wr(DIB3000MB_REG_MOBILE_MODE_QAM,DIB3000MB_MOBILE_MODE_QAM_OFF);
wr(DIB3000MB_REG_VIT_CODE_RATE,DIB3000MB_FEC_1_2);
wr(DIB3000MB_REG_VIT_HP,DIB3000MB_VIT_HP);
wr(DIB3000MB_REG_BERLEN,DIB3000MB_BERLEN_DEFAULT);
wr_foreach(dib3000mb_reg_filter_coeffs,dib3000mb_filter_coeffs);
wr(DIB3000MB_REG_MOBILE_ALGO,DIB3000MB_MOBILE_ALGO_ON);
wr(DIB3000MB_REG_MULTI_DEMOD_MSB,DIB3000MB_MULTI_DEMOD_MSB);
wr(DIB3000MB_REG_MULTI_DEMOD_LSB,DIB3000MB_MULTI_DEMOD_LSB);
wr(DIB3000MB_REG_OUTPUT_MODE,DIB3000MB_OUTPUT_MODE_SLAVE);
wr(DIB3000MB_REG_FIFO_142,DIB3000MB_FIFO_142);
wr(DIB3000MB_REG_MPEG2_OUT_MODE,DIB3000MB_MPEG2_OUT_MODE_188);
wr(DIB3000MB_REG_FIFO_144,DIB3000MB_FIFO_144);
wr(DIB3000MB_REG_FIFO,DIB3000MB_FIFO_INHIBIT);
wr(DIB3000MB_REG_FIFO_146,DIB3000MB_FIFO_146);
wr(DIB3000MB_REG_FIFO_147,DIB3000MB_FIFO_147);
wr(DIB3000MB_REG_DATA_IN_DIVERSITY,DIB3000MB_DATA_DIVERSITY_IN_OFF);
return 0;
}
static int dib3000mb_read_status(struct dib3000mb_state *state,fe_status_t *stat)
{
*stat = 0;
*stat |= rd(DIB3000MB_REG_AGC_LOCK) ? FE_HAS_SIGNAL : 0;
*stat |= rd(DIB3000MB_REG_CARRIER_LOCK) ? FE_HAS_CARRIER : 0;
*stat |= rd(DIB3000MB_REG_VIT_LCK) ? FE_HAS_VITERBI : 0;
*stat |= rd(DIB3000MB_REG_TS_SYNC_LOCK) ? FE_HAS_SYNC : 0;
*stat |= *stat ? FE_HAS_LOCK : 0;
deb_info("actual status is %2x\n",*stat);
deb_info("autoval: tps: %d, qam: %d, hrch: %d, alpha: %d, hp: %d, lp: %d, guard: %d, fft: %d cell: %d\n",
rd(DIB3000MB_REG_TPS_LOCK),
rd(DIB3000MB_REG_TPS_QAM),
rd(DIB3000MB_REG_TPS_HRCH),
rd(DIB3000MB_REG_TPS_VIT_ALPHA),
rd(DIB3000MB_REG_TPS_CODE_RATE_HP),
rd(DIB3000MB_REG_TPS_CODE_RATE_LP),
rd(DIB3000MB_REG_TPS_GUARD_TIME),
rd(DIB3000MB_REG_TPS_FFT),
rd(DIB3000MB_REG_TPS_CELL_ID));
//*stat = FE_HAS_SIGNAL | FE_HAS_CARRIER | FE_HAS_VITERBI | FE_HAS_SYNC | FE_HAS_LOCK;
return 0;
}
static int dib3000mb_read_ber(struct dib3000mb_state *state,u32 *ber)
{
*ber =
(((rd(DIB3000MB_REG_BER_MSB) << 16) & 0x1f) | rd(DIB3000MB_REG_BER_LSB) ) /
100000000;
return 0;
}
static int dib3000mb_signal_strength(struct dib3000mb_state *state, u16 *strength)
{
// *stength = DIB3000MB_REG_SIGNAL_POWER
return 0;
}
static int dib3000mb_sleep(struct dib3000mb_state *state)
{
wr(DIB3000MB_REG_POWER_CONTROL,DIB3000MB_POWER_DOWN);
return 0;
}
static int dib3000mb_ioctl (struct dvb_frontend *fe, unsigned int cmd, void *arg)
{
struct dib3000mb_state *state = fe->data;
int ret = 0;
switch (cmd) {
case FE_GET_INFO:
deb_info("FE_GET_INFO\n");
memcpy(arg, &dib3000mb_info, sizeof(struct dvb_frontend_info));
break;
case FE_READ_STATUS:
deb_info("FE_READ_STATUS\n");
ret = dib3000mb_read_status(state,(fe_status_t *)arg);
break;
case FE_READ_BER:
deb_info("FE_READ_BER\n");
ret = dib3000mb_read_ber(state,(u32 *)arg);
break;
case FE_READ_SIGNAL_STRENGTH:
deb_info("FE_READ_SIG_STRENGTH\n");
ret = dib3000mb_signal_strength(state,(u16 *) arg);
break;
case FE_READ_SNR:
deb_info("FE_READ_SNR\n");
break;
case FE_READ_UNCORRECTED_BLOCKS:
deb_info("FE_READ_UNCORRECTED_BLOCKS\n");
break;
case FE_SET_FRONTEND:
deb_info("FE_SET_FRONTEND\n");
ret = dib3000mb_set_frontend(state,(struct dvb_frontend_parameters *) arg,1);
break;
case FE_GET_FRONTEND:
deb_info("FE_GET_FRONTEND\n");
ret = dib3000mb_get_frontend(state,(struct dvb_frontend_parameters *) arg);
break;
case FE_SLEEP:
deb_info("FE_SLEEP\n");
ret = dib3000mb_sleep(state);
break;
case FE_INIT:
deb_info("FE_INIT\n");
ret = dib3000mb_fe_init(state,0);
break;
case FE_SET_TONE:
case FE_SET_VOLTAGE:
default:
ret = -EOPNOTSUPP;
break;
}
return 0;
}
static struct i2c_client client_template;
static int dib3000mb_attach_adapter(struct i2c_adapter *adapter)
{
struct i2c_client *client;
struct dib3000mb_state *state;
int ret = -ENOMEM;
deb_info("i2c probe with adapter '%s'.\n",adapter->name);
if ((state = kmalloc(sizeof(struct dib3000mb_state),GFP_KERNEL)) == NULL)
return -ENOMEM;
if ((client = kmalloc(sizeof(struct i2c_client), GFP_KERNEL)) == NULL)
goto i2c_kmalloc_err;
memcpy(client, &client_template, sizeof(struct i2c_client));
client->adapter = adapter;
client->addr = 0x10;
state->i2c = client;
i2c_set_clientdata(client,state);
state->manufactor_id = dib3000mb_read_reg(client, DIB3000MB_REG_MANUFACTOR_ID);
state->device_id = dib3000mb_read_reg(client,DIB3000MB_REG_DEVICE_ID);
if (state->manufactor_id == 0x01b3 && state->device_id == 0x3000)
info("found a DiBCom (0x%04x) 3000-MB DVB-T frontend (ver: %x).",
state->manufactor_id, state->device_id);
else {
err("did not found a DiBCom 3000-MB.");
ret = -ENODEV;
goto probe_err;
}
if ((ret = i2c_attach_client(client)))
goto i2c_attach_err;
if (state->dvb == NULL)
goto i2c_attach_err;
if ((ret = dvb_register_frontend(dib3000mb_ioctl, state->dvb, state,
&dib3000mb_info, THIS_MODULE)))
goto dvb_fe_err;
goto success;
dvb_fe_err:
i2c_detach_client(client);
i2c_attach_err:
probe_err:
kfree(client);
i2c_kmalloc_err:
kfree(state);
return ret;
success:
return 0;
}
static int dib3000mb_detach_client(struct i2c_client *client)
{
struct dib3000mb_state *state = i2c_get_clientdata(client);
deb_info("i2c detach\n");
dvb_unregister_frontend(dib3000mb_ioctl, state->dvb);
i2c_detach_client(client);
kfree(client);
kfree(state);
return 0;
}
static int dib3000mb_command(struct i2c_client *client,
unsigned int cmd, void *arg)
{
struct dib3000mb_state *state = i2c_get_clientdata(client);
deb_info("i2c command.\n");
switch(cmd) {
case FE_REGISTER:
state->dvb = arg;
break;
case FE_UNREGISTER:
state->dvb = NULL;
break;
default:
return -EOPNOTSUPP;
}
return 0;
}
static struct i2c_driver driver = {
.owner = THIS_MODULE,
.name = "dib3000mb",
.id = I2C_DRIVERID_DVBFE_DIB3000MB,
.flags = I2C_DF_NOTIFY,
.attach_adapter = dib3000mb_attach_adapter,
.detach_client = dib3000mb_detach_client,
.command = dib3000mb_command,
};
static struct i2c_client client_template = {
.name = "dib3000mb",
.flags = I2C_CLIENT_ALLOW_USE,
.driver = &driver,
};
/* module stuff */
static int __init dib3000mb_init(void)
{
deb_info("debugging level: %d\n",debug);
return i2c_add_driver(&driver);
}
static void __exit dib3000mb_exit(void)
{
i2c_del_driver(&driver);
}
module_init (dib3000mb_init);
module_exit (dib3000mb_exit);
MODULE_AUTHOR(DRIVER_AUTHOR);
MODULE_DESCRIPTION(DRIVER_DESC);
MODULE_LICENSE("GPL");
/*
* dib3000mb.h
*
* Copyright (C) 2004 Patrick Boettcher (patrick.boettcher@desy.de)
*
* 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, version 2.
*
*
* for more information see dib3000mb.c .
*/
#ifndef __DIB3000MB_H_INCLUDED__
#define __DIB3000MB_H_INCLUDED__
/* info and err, taken from usb.h, if there is anything available like by default,
* please change !
*/
#define err(format, arg...) printk(KERN_ERR "%s: " format "\n" , __FILE__ , ## arg)
#define info(format, arg...) printk(KERN_INFO "%s: " format "\n" , __FILE__ , ## arg)
#define warn(format, arg...) printk(KERN_WARNING "%s: " format "\n" , __FILE__ , ## arg)
/* register addresses and some of their default values */
/* restart subsystems */
#define DIB3000MB_REG_RESTART ( 0)
#define DIB3000MB_RESTART_OFF ( 0)
#define DIB3000MB_RESTART_AUTO_SEARCH (1 << 1)
#define DIB3000MB_RESTART_CTRL (1 << 2)
#define DIB3000MB_RESTART_AGC (1 << 3)
/* FFT size */
#define DIB3000MB_REG_FFT ( 1)
#define DIB3000MB_FFT_2K ( 0)
#define DIB3000MB_FFT_8K ( 1)
#define DIB3000MB_FFT_AUTO ( 1)
/* Guard time */
#define DIB3000MB_REG_GUARD_TIME ( 2)
#define DIB3000MB_GUARD_TIME_1_32 ( 0)
#define DIB3000MB_GUARD_TIME_1_16 ( 1)
#define DIB3000MB_GUARD_TIME_1_8 ( 2)
#define DIB3000MB_GUARD_TIME_1_4 ( 3)
#define DIB3000MB_GUARD_TIME_AUTO ( 0)
/* QAM */
#define DIB3000MB_REG_QAM ( 3)
#define DIB3000MB_QAM_QPSK ( 0)
#define DIB3000MB_QAM_QAM16 ( 1)
#define DIB3000MB_QAM_QAM64 ( 2)
#define DIB3000MB_QAM_RESERVED ( 3)
/* Alpha coefficient high priority Viterbi algorithm */
#define DIB3000MB_REG_VIT_ALPHA ( 4)
#define DIB3000MB_VIT_ALPHA_OFF ( 0)
#define DIB3000MB_VIT_ALPHA_1 ( 1)
#define DIB3000MB_VIT_ALPHA_2 ( 2)
#define DIB3000MB_VIT_ALPHA_4 ( 4)
#define DIB3000MB_VIT_ALPHA_AUTO ( 7)
/* spectrum inversion */
#define DIB3000MB_REG_DDS_INV ( 5)
#define DIB3000MB_DDS_INV_OFF ( 0)
#define DIB3000MB_DDS_INV_ON ( 1)
/* DDS frequency value (IF position) ad ? values don't match reg_3000mb.txt */
#define DIB3000MB_REG_DDS_FREQ_MSB ( 6)
#define DIB3000MB_REG_DDS_FREQ_LSB ( 7)
#define DIB3000MB_DDS_FREQ_MSB ( 178)
#define DIB3000MB_DDS_FREQ_LSB ( 8990)
/* timing frequency (carrier spacing) */
#define DIB3000MB_REG_TIMING_FREQ_MSB ( 8)
#define DIB3000MB_REG_TIMING_FREQ_LSB ( 9)
static u16 dib3000mb_reg_timing_freq[] = {
DIB3000MB_REG_TIMING_FREQ_MSB, DIB3000MB_REG_TIMING_FREQ_LSB
};
static u16 dib3000mb_timing_freq[][2] = {
{ 126 , 48873 }, /* 6 MHz */
{ 147 , 57019 }, /* 7 MHz */
{ 168 , 65164 }, /* 8 MHz */
};
/* impulse noise parameter */
#define DIB3000MB_REG_IMPNOISE_10 ( 10)
#define DIB3000MB_REG_IMPNOISE_11 ( 11)
#define DIB3000MB_REG_IMPNOISE_12 ( 12)
#define DIB3000MB_REG_IMPNOISE_13 ( 13)
#define DIB3000MB_REG_IMPNOISE_14 ( 14)
#define DIB3000MB_REG_IMPNOISE_15 ( 15)
/* 36 ??? */
#define DIB3000MB_REG_IMPNOISE_36 ( 36)
enum dib3000mb_impulse_noise_type {
DIB3000MB_IMPNOISE_OFF,
DIB3000MB_IMPNOISE_MOBILE,
DIB3000MB_IMPNOISE_FIXED,
DIB3000MB_IMPNOISE_DEFAULT
};
static u16 dib3000mb_reg_impulse_noise[] = {
DIB3000MB_REG_IMPNOISE_10, DIB3000MB_REG_IMPNOISE_11,
DIB3000MB_REG_IMPNOISE_12, DIB3000MB_REG_IMPNOISE_15,
DIB3000MB_REG_IMPNOISE_36
};
static u16 dib3000mb_impulse_noise_values[][5] = {
{ 0x0000, 0x0004, 0x0014, 0x01ff, 0x0399 }, /* off */
{ 0x0001, 0x0004, 0x0014, 0x01ff, 0x037b }, /* mobile */
{ 0x0001, 0x0004, 0x0020, 0x01bd, 0x0399 }, /* fixed */
{ 0x0000, 0x0002, 0x000a, 0x01ff, 0x0399 }, /* default */
};
/*
* Dual Automatic-Gain-Control
* - gains RF in tuner (AGC1)
* - gains IF after filtering (AGC2)
*/
/* also from 16 to 18 */
#define DIB3000MB_REG_AGC_GAIN_19 ( 19)
#define DIB3000MB_REG_AGC_GAIN_20 ( 20)
#define DIB3000MB_REG_AGC_GAIN_21 ( 21)
#define DIB3000MB_REG_AGC_GAIN_22 ( 22)
#define DIB3000MB_REG_AGC_GAIN_23 ( 23)
#define DIB3000MB_REG_AGC_GAIN_24 ( 24)
#define DIB3000MB_REG_AGC_GAIN_25 ( 25)
#define DIB3000MB_REG_AGC_GAIN_26 ( 26)
#define DIB3000MB_REG_AGC_GAIN_27 ( 27)
#define DIB3000MB_REG_AGC_GAIN_28 ( 28)
#define DIB3000MB_REG_AGC_GAIN_29 ( 29)
#define DIB3000MB_REG_AGC_GAIN_30 ( 30)
#define DIB3000MB_REG_AGC_GAIN_31 ( 31)
#define DIB3000MB_REG_AGC_GAIN_32 ( 32)
static u16 dib3000mb_reg_agc_gain[] = {
DIB3000MB_REG_AGC_GAIN_19, DIB3000MB_REG_AGC_GAIN_20, DIB3000MB_REG_AGC_GAIN_21,
DIB3000MB_REG_AGC_GAIN_22, DIB3000MB_REG_AGC_GAIN_23, DIB3000MB_REG_AGC_GAIN_24,
DIB3000MB_REG_AGC_GAIN_25, DIB3000MB_REG_AGC_GAIN_26, DIB3000MB_REG_AGC_GAIN_27,
DIB3000MB_REG_AGC_GAIN_28, DIB3000MB_REG_AGC_GAIN_29, DIB3000MB_REG_AGC_GAIN_30,
DIB3000MB_REG_AGC_GAIN_31, DIB3000MB_REG_AGC_GAIN_32 };
static u16 dib3000mb_default_agc_gain[] =
{ 0x0001, 52429, 623, 128, 166, 195, 61, /* RF ??? */
0x0001, 53766, 38011, 0, 90, 33, 23 }; /* IF ??? */
/* phase noise */
#define DIB3000MB_REG_PHASE_NOISE_33 ( 33)
#define DIB3000MB_REG_PHASE_NOISE_34 ( 34)
#define DIB3000MB_REG_PHASE_NOISE_35 ( 35)
#define DIB3000MB_REG_PHASE_NOISE_36 ( 36)
#define DIB3000MB_REG_PHASE_NOISE_37 ( 37)
#define DIB3000MB_REG_PHASE_NOISE_38 ( 38)
/* DIB3000MB_REG_PHASE_NOISE_36 is set when setting the impulse noise */
static u16 dib3000mb_reg_phase_noise[] = {
DIB3000MB_REG_PHASE_NOISE_33, DIB3000MB_REG_PHASE_NOISE_34, DIB3000MB_REG_PHASE_NOISE_35,
DIB3000MB_REG_PHASE_NOISE_37, DIB3000MB_REG_PHASE_NOISE_38
};
static u16 dib3000mb_default_noise_phase[] = { 2, 544, 0, 5, 4 };
/* lock duration */
#define DIB3000MB_REG_LOCK_DURATION_39 ( 39)
#define DIB3000MB_REG_LOCK_DURATION_40 ( 40)
static u16 dib3000mb_reg_lock_duration[] = {
DIB3000MB_REG_LOCK_DURATION_39, DIB3000MB_REG_LOCK_DURATION_40
};
static u16 dib3000mb_default_lock_duration[] = { 135, 135 };
/* AGC loop bandwidth */
#define DIB3000MB_REG_AGC_BW_43 ( 43)
#define DIB3000MB_REG_AGC_BW_44 ( 44)
#define DIB3000MB_REG_AGC_BW_45 ( 45)
#define DIB3000MB_REG_AGC_BW_46 ( 46)
#define DIB3000MB_REG_AGC_BW_47 ( 47)
#define DIB3000MB_REG_AGC_BW_48 ( 48)
#define DIB3000MB_REG_AGC_BW_49 ( 49)
#define DIB3000MB_REG_AGC_BW_50 ( 50)
static u16 dib3000mb_reg_agc_bandwidth[] = {
DIB3000MB_REG_AGC_BW_43, DIB3000MB_REG_AGC_BW_44, DIB3000MB_REG_AGC_BW_45,
DIB3000MB_REG_AGC_BW_46, DIB3000MB_REG_AGC_BW_47, DIB3000MB_REG_AGC_BW_48,
DIB3000MB_REG_AGC_BW_49, DIB3000MB_REG_AGC_BW_50
};
static u16 dib3000mb_agc_bandwidth_low[] =
{ 2088, 10, 2088, 10, 3448, 5, 3448, 5 };
static u16 dib3000mb_agc_bandwidth_high[] =
{ 2349, 5, 2349, 5, 2586, 2, 2586, 2 };
/*
* lock0 definition (coff_lock)
*/
#define DIB3000MB_REG_LOCK0_MASK ( 51)
#define DIB3000MB_LOCK0_DEFAULT ( 4)
/*
* lock1 definition (cpil_lock)
* for auto search
* which values hide behind the lock masks
*/
#define DIB3000MB_REG_LOCK1_MASK ( 52)
#define DIB3000MB_LOCK1_SEARCH_4 (0x0004)
#define DIB3000MB_LOCK1_SEARCH_2048 (0x0800)
#define DIB3000MB_LOCK1_DEFAULT (0x0001)
/*
* lock2 definition (fec_lock) */
#define DIB3000MB_REG_LOCK2_MASK ( 53)
#define DIB3000MB_LOCK2_DEFAULT (0x0080)
/*
* SEQ ? what was that again ... :)
* changes when, inversion, guard time and fft is
* either automatically detected or not
*/
#define DIB3000MB_REG_SEQ ( 54)
/* all values have been set manually */
static u16 dib3000mb_seq[2][2][2] = /* fft,gua, inv */
{ /* fft */
{ /* gua */
{ 0, 1 }, /* 0 0 { 0,1 } */
{ 3, 9 }, /* 0 1 { 0,1 } */
},
{
{ 2, 5 }, /* 1 0 { 0,1 } */
{ 6, 11 }, /* 1 1 { 0,1 } */
}
};
/* bandwidth */
#define DIB3000MB_REG_BW_55 ( 55)
#define DIB3000MB_REG_BW_56 ( 56)
#define DIB3000MB_REG_BW_57 ( 57)
#define DIB3000MB_REG_BW_58 ( 58)
#define DIB3000MB_REG_BW_59 ( 59)
#define DIB3000MB_REG_BW_60 ( 60)
#define DIB3000MB_REG_BW_61 ( 61)
#define DIB3000MB_REG_BW_62 ( 62)
#define DIB3000MB_REG_BW_63 ( 63)
#define DIB3000MB_REG_BW_64 ( 64)
#define DIB3000MB_REG_BW_65 ( 65)
#define DIB3000MB_REG_BW_66 ( 66)
#define DIB3000MB_REG_BW_67 ( 67)
static u16 dib3000mb_reg_bandwidth[] = {
DIB3000MB_REG_BW_55, DIB3000MB_REG_BW_56, DIB3000MB_REG_BW_57,
DIB3000MB_REG_BW_58, DIB3000MB_REG_BW_59, DIB3000MB_REG_BW_60,
DIB3000MB_REG_BW_61, DIB3000MB_REG_BW_62, DIB3000MB_REG_BW_63,
DIB3000MB_REG_BW_64, DIB3000MB_REG_BW_65, DIB3000MB_REG_BW_66,
DIB3000MB_REG_BW_67
};
static u16 dib3000mb_bandwidth_6mhz[] =
{ 0, 33, 53312, 112, 46635, 563, 36565, 0, 1000, 0, 1010, 1, 45264 };
static u16 dib3000mb_bandwidth_7mhz[] =
{ 0, 28, 64421, 96, 39973, 483, 3255, 0, 1000, 0, 1010, 1, 45264 };
static u16 dib3000mb_bandwidth_8mhz[] =
{ 0, 25, 23600, 84, 34976, 422, 43808, 0, 1000, 0, 1010, 1, 45264 };
#define DIB3000MB_REG_UNK_68 ( 68)
#define DIB3000MB_UNK_68 ( 0)
#define DIB3000MB_REG_UNK_69 ( 69)
#define DIB3000MB_UNK_69 ( 0)
#define DIB3000MB_REG_UNK_71 ( 71)
#define DIB3000MB_UNK_71 ( 0)
#define DIB3000MB_REG_UNK_77 ( 77)
#define DIB3000MB_UNK_77 ( 6)
#define DIB3000MB_REG_UNK_78 ( 78)
#define DIB3000MB_UNK_78 (0x0080)
/* isi */
#define DIB3000MB_REG_ISI ( 79)
#define DIB3000MB_ISI_ACTIVATE ( 0)
#define DIB3000MB_ISI_INHIBIT ( 1)
/* sync impovement */
#define DIB3000MB_REG_SYNC_IMPROVEMENT ( 84)
#define DIB3000MB_SYNC_IMPROVE_2K_1_8 ( 3)
#define DIB3000MB_SYNC_IMPROVE_DEFAULT ( 0)
/* phase noise compensation inhibition */
#define DIB3000MB_REG_PHASE_NOISE ( 87)
#define DIB3000MB_PHASE_NOISE_DEFAULT ( 0)
#define DIB3000MB_REG_UNK_92 ( 92)
#define DIB3000MB_UNK_92 (0x0080)
#define DIB3000MB_REG_UNK_96 ( 96)
#define DIB3000MB_UNK_96 (0x0010)
#define DIB3000MB_REG_UNK_97 ( 97)
#define DIB3000MB_UNK_97 (0x0009)
/* mobile mode ??? */
#define DIB3000MB_REG_MOBILE_MODE ( 101)
#define DIB3000MB_MOBILE_MODE_ON ( 1)
#define DIB3000MB_MOBILE_MODE_OFF ( 0)
#define DIB3000MB_REG_UNK_106 ( 106)
#define DIB3000MB_UNK_106 (0x0080)
#define DIB3000MB_REG_UNK_107 ( 107)
#define DIB3000MB_UNK_107 (0x0080)
#define DIB3000MB_REG_UNK_108 ( 108)
#define DIB3000MB_UNK_108 (0x0080)
/* fft ??? */
#define DIB3000MB_REG_UNK_121 ( 121)
#define DIB3000MB_UNK_121_2K ( 7)
#define DIB3000MB_UNK_121_DEFAULT ( 5)
#define DIB3000MB_REG_UNK_122 ( 122)
#define DIB3000MB_UNK_122 ( 2867)
/* QAM for mobile mode */
#define DIB3000MB_REG_MOBILE_MODE_QAM ( 126)
#define DIB3000MB_MOBILE_MODE_QAM_64 ( 3)
#define DIB3000MB_MOBILE_MODE_QAM_QPSK_16 ( 1)
#define DIB3000MB_MOBILE_MODE_QAM_OFF ( 0)
/*
* data diversity when having more than one chip on-board
* see also DIB3000MB_OUTPUT_MODE_DATA_DIVERSITY
*/
#define DIB3000MB_REG_DATA_IN_DIVERSITY ( 127)
#define DIB3000MB_DATA_DIVERSITY_IN_OFF ( 0)
#define DIB3000MB_DATA_DIVERSITY_IN_ON ( 2)
/* vit hrch */
#define DIB3000MB_REG_VIT_HRCH ( 128)
#define DIB3000MB_VIT_HRCH_ON ( 1)
#define DIB3000MB_VIT_HRCH_OFF ( 0)
/* vit code rate */
#define DIB3000MB_REG_VIT_CODE_RATE ( 129)
/* forward error correction code rates */
#define DIB3000MB_FEC_1_2 ( 0)
#define DIB3000MB_FEC_2_3 ( 1)
#define DIB3000MB_FEC_3_4 ( 2)
#define DIB3000MB_FEC_4_5 ( 3)
#define DIB3000MB_FEC_5_6 ( 4)
#define DIB3000MB_FEC_7_8 ( 5)
/* vit select hp */
#define DIB3000MB_REG_VIT_HP ( 130)
#define DIB3000MB_VIT_LP ( 0)
#define DIB3000MB_VIT_HP ( 1)
/* time frame for Bit-Error-Rate calculation */
#define DIB3000MB_REG_BERLEN ( 135)
#define DIB3000MB_BERLEN_LONG ( 0)
#define DIB3000MB_BERLEN_DEFAULT ( 1)
#define DIB3000MB_BERLEN_MEDIUM ( 2)
#define DIB3000MB_BERLEN_SHORT ( 3)
/* 142 - 152 FIFO parameters
* which is what ?
*/
#define DIB3000MB_REG_FIFO_142 ( 142)
#define DIB3000MB_FIFO_142 ( 0)
/* MPEG2 TS output mode */
#define DIB3000MB_REG_MPEG2_OUT_MODE ( 143)
#define DIB3000MB_MPEG2_OUT_MODE_204 ( 0)
#define DIB3000MB_MPEG2_OUT_MODE_188 ( 1)
#define DIB3000MB_REG_FIFO_144 ( 144)
#define DIB3000MB_FIFO_144 ( 1)
#define DIB3000MB_REG_FIFO ( 145)
#define DIB3000MB_FIFO_INHIBIT ( 1)
#define DIB3000MB_FIFO_ACTIVATE ( 0)
#define DIB3000MB_REG_FIFO_146 ( 146)
#define DIB3000MB_FIFO_146 ( 3)
#define DIB3000MB_REG_FIFO_147 ( 147)
#define DIB3000MB_FIFO_147 (0x0100)
/*
* pidfilter
* it is not a hardware pidfilter but a filter which drops all pids
* except the ones set. Necessary because of the limited USB1.1 bandwidth.
*/
#define DIB3000MB_REG_FILTER_PID_0 ( 153)
#define DIB3000MB_REG_FILTER_PID_1 ( 154)
#define DIB3000MB_REG_FILTER_PID_2 ( 155)
#define DIB3000MB_REG_FILTER_PID_3 ( 156)
#define DIB3000MB_REG_FILTER_PID_4 ( 157)
#define DIB3000MB_REG_FILTER_PID_5 ( 158)
#define DIB3000MB_REG_FILTER_PID_6 ( 159)
#define DIB3000MB_REG_FILTER_PID_7 ( 160)
#define DIB3000MB_REG_FILTER_PID_8 ( 161)
#define DIB3000MB_REG_FILTER_PID_9 ( 162)
#define DIB3000MB_REG_FILTER_PID_10 ( 163)
#define DIB3000MB_REG_FILTER_PID_11 ( 164)
#define DIB3000MB_REG_FILTER_PID_12 ( 165)
#define DIB3000MB_REG_FILTER_PID_13 ( 166)
#define DIB3000MB_REG_FILTER_PID_14 ( 167)
#define DIB3000MB_REG_FILTER_PID_15 ( 168)
#define DIB3000MB_ACTIVATE_FILTERING (0x2000)
/*
* output mode
* USB devices have to use 'slave'-mode
* see also DIB3000MB_REG_ELECT_OUT_MODE
*/
#define DIB3000MB_REG_OUTPUT_MODE ( 169)
#define DIB3000MB_OUTPUT_MODE_GATED_CLK ( 0)
#define DIB3000MB_OUTPUT_MODE_CONT_CLK ( 1)
#define DIB3000MB_OUTPUT_MODE_SERIAL ( 2)
#define DIB3000MB_OUTPUT_MODE_DATA_DIVERSITY ( 5)
#define DIB3000MB_OUTPUT_MODE_SLAVE ( 6)
/* irq event mask */
#define DIB3000MB_REG_IRQ_EVENT_MASK ( 170)
#define DIB3000MB_IRQ_EVENT_MASK ( 0)
/* filter coefficients */
#define DIB3000MB_REG_FILTER_COEF_171 ( 171)
#define DIB3000MB_REG_FILTER_COEF_172 ( 172)
#define DIB3000MB_REG_FILTER_COEF_173 ( 173)
#define DIB3000MB_REG_FILTER_COEF_174 ( 174)
#define DIB3000MB_REG_FILTER_COEF_175 ( 175)
#define DIB3000MB_REG_FILTER_COEF_176 ( 176)
#define DIB3000MB_REG_FILTER_COEF_177 ( 177)
#define DIB3000MB_REG_FILTER_COEF_178 ( 178)
#define DIB3000MB_REG_FILTER_COEF_179 ( 179)
#define DIB3000MB_REG_FILTER_COEF_180 ( 180)
#define DIB3000MB_REG_FILTER_COEF_181 ( 181)
#define DIB3000MB_REG_FILTER_COEF_182 ( 182)
#define DIB3000MB_REG_FILTER_COEF_183 ( 183)
#define DIB3000MB_REG_FILTER_COEF_184 ( 184)
#define DIB3000MB_REG_FILTER_COEF_185 ( 185)
#define DIB3000MB_REG_FILTER_COEF_186 ( 186)
#define DIB3000MB_REG_FILTER_COEF_187 ( 187)
#define DIB3000MB_REG_FILTER_COEF_188 ( 188)
#define DIB3000MB_REG_FILTER_COEF_189 ( 189)
#define DIB3000MB_REG_FILTER_COEF_190 ( 190)
#define DIB3000MB_REG_FILTER_COEF_191 ( 191)
#define DIB3000MB_REG_FILTER_COEF_192 ( 192)
#define DIB3000MB_REG_FILTER_COEF_193 ( 193)
#define DIB3000MB_REG_FILTER_COEF_194 ( 194)
static u16 dib3000mb_reg_filter_coeffs[] = {
DIB3000MB_REG_FILTER_COEF_171, DIB3000MB_REG_FILTER_COEF_172, DIB3000MB_REG_FILTER_COEF_173,
DIB3000MB_REG_FILTER_COEF_174, DIB3000MB_REG_FILTER_COEF_175, DIB3000MB_REG_FILTER_COEF_176,
DIB3000MB_REG_FILTER_COEF_177, DIB3000MB_REG_FILTER_COEF_178, DIB3000MB_REG_FILTER_COEF_179,
DIB3000MB_REG_FILTER_COEF_180, DIB3000MB_REG_FILTER_COEF_181, DIB3000MB_REG_FILTER_COEF_182,
DIB3000MB_REG_FILTER_COEF_183, DIB3000MB_REG_FILTER_COEF_184, DIB3000MB_REG_FILTER_COEF_185,
DIB3000MB_REG_FILTER_COEF_186, DIB3000MB_REG_FILTER_COEF_188,
DIB3000MB_REG_FILTER_COEF_189, DIB3000MB_REG_FILTER_COEF_190, DIB3000MB_REG_FILTER_COEF_191,
DIB3000MB_REG_FILTER_COEF_192, DIB3000MB_REG_FILTER_COEF_194
};
static u16 dib3000mb_filter_coeffs[] = {
226, 160, 29,
979, 998, 19,
22, 1019, 1006,
1022, 12, 6,
1017, 1017, 3,
6, 1019,
1021, 2, 3,
1, 0,
};
/*
* mobile algorithm (when you are moving with your device)
* but not faster than 90 km/h
*/
#define DIB3000MB_REG_MOBILE_ALGO ( 195)
#define DIB3000MB_MOBILE_ALGO_ON ( 0)
#define DIB3000MB_MOBILE_ALGO_OFF ( 1)
/* multiple demodulators algorithm */
#define DIB3000MB_REG_MULTI_DEMOD_MSB ( 206)
#define DIB3000MB_REG_MULTI_DEMOD_LSB ( 207)
/* terminator, no more demods */
#define DIB3000MB_MULTI_DEMOD_MSB ( 32767)
#define DIB3000MB_MULTI_DEMOD_LSB ( 4095)
/* bring the device into a known */
#define DIB3000MB_REG_RESET_DEVICE ( 1024)
#define DIB3000MB_RESET_DEVICE (0x812c)
#define DIB3000MB_RESET_DEVICE_RST ( 0)
/* identification registers, manufactor an the device */
#define DIB3000MB_REG_MANUFACTOR_ID ( 1025)
#define DIB3000MB_MANUFACTOR_ID_DIBCOM (0x01B3)
#define DIB3000MB_REG_DEVICE_ID ( 1026)
#define DIB3000MB_DEVICE_ID (0x3000)
/* hardware clock configuration */
#define DIB3000MB_REG_CLOCK ( 1027)
#define DIB3000MB_CLOCK_DEFAULT (0x9000)
#define DIB3000MB_CLOCK_DIVERSITY (0x92b0)
/* power down config */
#define DIB3000MB_REG_POWER_CONTROL ( 1028)
#define DIB3000MB_POWER_DOWN ( 1)
#define DIB3000MB_POWER_UP ( 0)
/* electrical output mode */
#define DIB3000MB_REG_ELECT_OUT_MODE ( 1029)
#define DIB3000MB_ELECT_OUT_MODE_OFF ( 0)
#define DIB3000MB_ELECT_OUT_MODE_ON ( 1)
/* set the tuner i2c address */
#define DIB3000MB_REG_TUNER ( 1089)
#define DIB3000MB_TUNER_ADDR_DEFAULT ( 194)
#define DIB3000MB_ACTIVATE_TUNER_XFER(a) (0xffff & (a << 7))
#define DIB3000MB_DEACTIVATE_TUNER_XFER(a) (0xffff & ((a << 7) + 0x80))
/* monitoring registers (read only) */
/* agc loop locked (size: 1) */
#define DIB3000MB_REG_AGC_LOCK ( 324)
/* agc power (size: 16) */
#define DIB3000MB_REG_AGC_POWER ( 325)
/* agc1 value (16) */
#define DIB3000MB_REG_AGC1_VALUE ( 326)
/* agc2 value (16) */
#define DIB3000MB_REG_AGC2_VALUE ( 327)
/* total RF power (16), can be used for signal strength */
#define DIB3000MB_REG_RF_POWER ( 328)
/* dds_frequency with offset (24) */
#define DIB3000MB_REG_DDS_VALUE_MSB ( 339)
#define DIB3000MB_REG_DDS_VALUE_LSB ( 340)
/* timing offset signed (24) */
#define DIB3000MB_REG_TIMING_OFFSET_MSB ( 341)
#define DIB3000MB_REG_TIMING_OFFSET_LSB ( 342)
/* fft start position (13) */
#define DIB3000MB_REG_FFT_WINDOW_POS ( 353)
/* carriers locked (1) */
#define DIB3000MB_REG_CARRIER_LOCK ( 355)
/* noise power (24) */
#define DIB3000MB_REG_NOISE_POWER_MSB ( 372)
#define DIB3000MB_REG_NOISE_POWER_LSB ( 373)
#define DIB3000MB_REG_MOBILE_NOISE_MSB ( 374)
#define DIB3000MB_REG_MOBILE_NOISE_LSB ( 375)
/*
* signal power (16), this and the above can be
* used to calculate the signal/noise - ratio
*/
#define DIB3000MB_REG_SIGNAL_POWER ( 380)
/* mer (24) */
#define DIB3000MB_REG_MER_MSB ( 381)
#define DIB3000MB_REG_MER_LSB ( 382)
/*
* Transmission Parameter Signalling (TPS)
* the following registers can be used to get TPS-information.
* The values are according to the DVB-T standard.
*/
/* TPS locked (1) */
#define DIB3000MB_REG_TPS_LOCK ( 394)
/* QAM from TPS (2) (values according to DIB3000MB_REG_QAM) */
#define DIB3000MB_REG_TPS_QAM ( 398)
/* hierarchy from TPS (1) */
#define DIB3000MB_REG_TPS_HRCH ( 399)
/* alpha from TPS (3) (values according to DIB3000MB_REG_VIT_ALPHA) */
#define DIB3000MB_REG_TPS_VIT_ALPHA ( 400)
/* code rate high priority from TPS (3) (values according to DIB3000MB_FEC_*) */
#define DIB3000MB_REG_TPS_CODE_RATE_HP ( 401)
/* code rate low priority from TPS (3) if DIB3000MB_REG_TPS_VIT_ALPHA */
#define DIB3000MB_REG_TPS_CODE_RATE_LP ( 402)
/* guard time from TPS (2) (values according to DIB3000MB_REG_GUARD_TIME */
#define DIB3000MB_REG_TPS_GUARD_TIME ( 403)
/* fft size from TPS (2) (values according to DIB3000MB_REG_FFT) */
#define DIB3000MB_REG_TPS_FFT ( 404)
/* cell id from TPS (16) */
#define DIB3000MB_REG_TPS_CELL_ID ( 406)
/* TPS (68) */
#define DIB3000MB_REG_TPS_1 ( 408)
#define DIB3000MB_REG_TPS_2 ( 409)
#define DIB3000MB_REG_TPS_3 ( 410)
#define DIB3000MB_REG_TPS_4 ( 411)
#define DIB3000MB_REG_TPS_5 ( 412)
/* bit error rate (before RS correction) (21) */
#define DIB3000MB_REG_BER_MSB ( 414)
#define DIB3000MB_REG_BER_LSB ( 415)
/* packet error rate (uncorrected TS packets) (16) */
#define DIB3000MB_REG_PACKET_ERROR_RATE ( 417)
/* packet error count (16) */
#define DIB3000MB_REG_PACKET_ERROR_COUNT ( 420)
/* viterbi locked (1) */
#define DIB3000MB_REG_VIT_LCK ( 421)
/* viterbi inidcator (16) */
#define DIB3000MB_REG_VIT_INDICATOR ( 422)
/* transport stream sync lock (1) */
#define DIB3000MB_REG_TS_SYNC_LOCK ( 423)
/* transport stream RS lock (1) */
#define DIB3000MB_REG_TS_RS_LOCK ( 424)
/* lock mask 0 value (1) */
#define DIB3000MB_REG_LOCK0_VALUE ( 425)
/* lock mask 1 value (1) */
#define DIB3000MB_REG_LOCK1_VALUE ( 426)
/* lock mask 2 value (1) */
#define DIB3000MB_REG_LOCK2_VALUE ( 427)
/* interrupt pending for auto search */
#define DIB3000MB_REG_AS_IRQ_PENDING ( 434)
#endif
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