Commit | Line | Data |
---|---|---|
aacb9d31 ST |
1 | /* |
2 | * Driver for Xceive XC5000 "QAM/8VSB single chip tuner" | |
3 | * | |
4 | * Copyright (c) 2007 Xceive Corporation | |
6d897616 | 5 | * Copyright (c) 2007 Steven Toth <stoth@linuxtv.org> |
e80858e8 | 6 | * Copyright (c) 2009 Devin Heitmueller <dheitmueller@kernellabs.com> |
aacb9d31 ST |
7 | * |
8 | * This program is free software; you can redistribute it and/or modify | |
9 | * it under the terms of the GNU General Public License as published by | |
10 | * the Free Software Foundation; either version 2 of the License, or | |
11 | * (at your option) any later version. | |
12 | * | |
13 | * This program is distributed in the hope that it will be useful, | |
14 | * but WITHOUT ANY WARRANTY; without even the implied warranty of | |
15 | * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the | |
16 | * | |
17 | * GNU General Public License for more details. | |
18 | * | |
19 | * You should have received a copy of the GNU General Public License | |
20 | * along with this program; if not, write to the Free Software | |
21 | * Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA. | |
22 | */ | |
23 | ||
24 | #include <linux/module.h> | |
25 | #include <linux/moduleparam.h> | |
4917019d | 26 | #include <linux/videodev2.h> |
aacb9d31 ST |
27 | #include <linux/delay.h> |
28 | #include <linux/dvb/frontend.h> | |
29 | #include <linux/i2c.h> | |
30 | ||
31 | #include "dvb_frontend.h" | |
32 | ||
33 | #include "xc5000.h" | |
89fd2854 | 34 | #include "tuner-i2c.h" |
aacb9d31 ST |
35 | |
36 | static int debug; | |
37 | module_param(debug, int, 0644); | |
38 | MODULE_PARM_DESC(debug, "Turn on/off debugging (default:off)."); | |
39 | ||
b6bd5eb8 DH |
40 | static int no_poweroff; |
41 | module_param(no_poweroff, int, 0644); | |
42 | MODULE_PARM_DESC(no_poweroff, "0 (default) powers device off when not used.\n" | |
43 | "\t\t1 keep device energized and with tuner ready all the times.\n" | |
44 | "\t\tFaster, but consumes more power and keeps the device hotter"); | |
45 | ||
89fd2854 MK |
46 | static DEFINE_MUTEX(xc5000_list_mutex); |
47 | static LIST_HEAD(hybrid_tuner_instance_list); | |
48 | ||
8f3cd530 | 49 | #define dprintk(level, fmt, arg...) if (debug >= level) \ |
aacb9d31 ST |
50 | printk(KERN_INFO "%s: " fmt, "xc5000", ## arg) |
51 | ||
ffb41234 | 52 | struct xc5000_priv { |
89fd2854 MK |
53 | struct tuner_i2c_props i2c_props; |
54 | struct list_head hybrid_tuner_instance_list; | |
ffb41234 | 55 | |
2a6003c2 | 56 | u32 if_khz; |
ffb41234 MK |
57 | u32 freq_hz; |
58 | u32 bandwidth; | |
59 | u8 video_standard; | |
60 | u8 rf_mode; | |
496e9057 | 61 | u8 radio_input; |
76efb0ba | 62 | |
6fab81df | 63 | int chip_id; |
ffb41234 MK |
64 | }; |
65 | ||
aacb9d31 | 66 | /* Misc Defines */ |
724dcbfa | 67 | #define MAX_TV_STANDARD 24 |
aacb9d31 ST |
68 | #define XC_MAX_I2C_WRITE_LENGTH 64 |
69 | ||
70 | /* Signal Types */ | |
71 | #define XC_RF_MODE_AIR 0 | |
72 | #define XC_RF_MODE_CABLE 1 | |
73 | ||
74 | /* Result codes */ | |
75 | #define XC_RESULT_SUCCESS 0 | |
76 | #define XC_RESULT_RESET_FAILURE 1 | |
77 | #define XC_RESULT_I2C_WRITE_FAILURE 2 | |
78 | #define XC_RESULT_I2C_READ_FAILURE 3 | |
79 | #define XC_RESULT_OUT_OF_RANGE 5 | |
80 | ||
27c685a4 ST |
81 | /* Product id */ |
82 | #define XC_PRODUCT_ID_FW_NOT_LOADED 0x2000 | |
83 | #define XC_PRODUCT_ID_FW_LOADED 0x1388 | |
84 | ||
aacb9d31 ST |
85 | /* Registers */ |
86 | #define XREG_INIT 0x00 | |
87 | #define XREG_VIDEO_MODE 0x01 | |
88 | #define XREG_AUDIO_MODE 0x02 | |
89 | #define XREG_RF_FREQ 0x03 | |
90 | #define XREG_D_CODE 0x04 | |
91 | #define XREG_IF_OUT 0x05 | |
92 | #define XREG_SEEK_MODE 0x07 | |
7f05b530 | 93 | #define XREG_POWER_DOWN 0x0A /* Obsolete */ |
724dcbfa DB |
94 | /* Set the output amplitude - SIF for analog, DTVP/DTVN for digital */ |
95 | #define XREG_OUTPUT_AMP 0x0B | |
aacb9d31 ST |
96 | #define XREG_SIGNALSOURCE 0x0D /* 0=Air, 1=Cable */ |
97 | #define XREG_SMOOTHEDCVBS 0x0E | |
98 | #define XREG_XTALFREQ 0x0F | |
81c4dfe7 | 99 | #define XREG_FINERFREQ 0x10 |
aacb9d31 ST |
100 | #define XREG_DDIMODE 0x11 |
101 | ||
102 | #define XREG_ADC_ENV 0x00 | |
103 | #define XREG_QUALITY 0x01 | |
104 | #define XREG_FRAME_LINES 0x02 | |
105 | #define XREG_HSYNC_FREQ 0x03 | |
106 | #define XREG_LOCK 0x04 | |
107 | #define XREG_FREQ_ERROR 0x05 | |
108 | #define XREG_SNR 0x06 | |
109 | #define XREG_VERSION 0x07 | |
110 | #define XREG_PRODUCT_ID 0x08 | |
111 | #define XREG_BUSY 0x09 | |
bae7b7d7 | 112 | #define XREG_BUILD 0x0D |
aacb9d31 ST |
113 | |
114 | /* | |
115 | Basic firmware description. This will remain with | |
116 | the driver for documentation purposes. | |
117 | ||
118 | This represents an I2C firmware file encoded as a | |
119 | string of unsigned char. Format is as follows: | |
120 | ||
121 | char[0 ]=len0_MSB -> len = len_MSB * 256 + len_LSB | |
122 | char[1 ]=len0_LSB -> length of first write transaction | |
123 | char[2 ]=data0 -> first byte to be sent | |
124 | char[3 ]=data1 | |
125 | char[4 ]=data2 | |
126 | char[ ]=... | |
127 | char[M ]=dataN -> last byte to be sent | |
128 | char[M+1]=len1_MSB -> len = len_MSB * 256 + len_LSB | |
129 | char[M+2]=len1_LSB -> length of second write transaction | |
130 | char[M+3]=data0 | |
131 | char[M+4]=data1 | |
132 | ... | |
133 | etc. | |
134 | ||
135 | The [len] value should be interpreted as follows: | |
136 | ||
137 | len= len_MSB _ len_LSB | |
138 | len=1111_1111_1111_1111 : End of I2C_SEQUENCE | |
139 | len=0000_0000_0000_0000 : Reset command: Do hardware reset | |
140 | len=0NNN_NNNN_NNNN_NNNN : Normal transaction: number of bytes = {1:32767) | |
141 | len=1WWW_WWWW_WWWW_WWWW : Wait command: wait for {1:32767} ms | |
142 | ||
143 | For the RESET and WAIT commands, the two following bytes will contain | |
144 | immediately the length of the following transaction. | |
145 | ||
146 | */ | |
8f3cd530 | 147 | struct XC_TV_STANDARD { |
aacb9d31 | 148 | char *Name; |
e12671cf ST |
149 | u16 AudioMode; |
150 | u16 VideoMode; | |
8f3cd530 | 151 | }; |
aacb9d31 ST |
152 | |
153 | /* Tuner standards */ | |
27c685a4 ST |
154 | #define MN_NTSC_PAL_BTSC 0 |
155 | #define MN_NTSC_PAL_A2 1 | |
156 | #define MN_NTSC_PAL_EIAJ 2 | |
157 | #define MN_NTSC_PAL_Mono 3 | |
158 | #define BG_PAL_A2 4 | |
159 | #define BG_PAL_NICAM 5 | |
160 | #define BG_PAL_MONO 6 | |
161 | #define I_PAL_NICAM 7 | |
162 | #define I_PAL_NICAM_MONO 8 | |
163 | #define DK_PAL_A2 9 | |
164 | #define DK_PAL_NICAM 10 | |
165 | #define DK_PAL_MONO 11 | |
166 | #define DK_SECAM_A2DK1 12 | |
167 | #define DK_SECAM_A2LDK3 13 | |
168 | #define DK_SECAM_A2MONO 14 | |
169 | #define L_SECAM_NICAM 15 | |
170 | #define LC_SECAM_NICAM 16 | |
171 | #define DTV6 17 | |
172 | #define DTV8 18 | |
173 | #define DTV7_8 19 | |
174 | #define DTV7 20 | |
175 | #define FM_Radio_INPUT2 21 | |
176 | #define FM_Radio_INPUT1 22 | |
724dcbfa | 177 | #define FM_Radio_INPUT1_MONO 23 |
aacb9d31 | 178 | |
8f3cd530 | 179 | static struct XC_TV_STANDARD XC5000_Standard[MAX_TV_STANDARD] = { |
aacb9d31 ST |
180 | {"M/N-NTSC/PAL-BTSC", 0x0400, 0x8020}, |
181 | {"M/N-NTSC/PAL-A2", 0x0600, 0x8020}, | |
182 | {"M/N-NTSC/PAL-EIAJ", 0x0440, 0x8020}, | |
183 | {"M/N-NTSC/PAL-Mono", 0x0478, 0x8020}, | |
184 | {"B/G-PAL-A2", 0x0A00, 0x8049}, | |
185 | {"B/G-PAL-NICAM", 0x0C04, 0x8049}, | |
186 | {"B/G-PAL-MONO", 0x0878, 0x8059}, | |
187 | {"I-PAL-NICAM", 0x1080, 0x8009}, | |
188 | {"I-PAL-NICAM-MONO", 0x0E78, 0x8009}, | |
189 | {"D/K-PAL-A2", 0x1600, 0x8009}, | |
190 | {"D/K-PAL-NICAM", 0x0E80, 0x8009}, | |
191 | {"D/K-PAL-MONO", 0x1478, 0x8009}, | |
192 | {"D/K-SECAM-A2 DK1", 0x1200, 0x8009}, | |
8f3cd530 | 193 | {"D/K-SECAM-A2 L/DK3", 0x0E00, 0x8009}, |
aacb9d31 ST |
194 | {"D/K-SECAM-A2 MONO", 0x1478, 0x8009}, |
195 | {"L-SECAM-NICAM", 0x8E82, 0x0009}, | |
196 | {"L'-SECAM-NICAM", 0x8E82, 0x4009}, | |
197 | {"DTV6", 0x00C0, 0x8002}, | |
198 | {"DTV8", 0x00C0, 0x800B}, | |
199 | {"DTV7/8", 0x00C0, 0x801B}, | |
200 | {"DTV7", 0x00C0, 0x8007}, | |
201 | {"FM Radio-INPUT2", 0x9802, 0x9002}, | |
724dcbfa DB |
202 | {"FM Radio-INPUT1", 0x0208, 0x9002}, |
203 | {"FM Radio-INPUT1_MONO", 0x0278, 0x9002} | |
aacb9d31 ST |
204 | }; |
205 | ||
ddea427f MK |
206 | |
207 | struct xc5000_fw_cfg { | |
208 | char *name; | |
209 | u16 size; | |
210 | }; | |
211 | ||
a3db60bc | 212 | static const struct xc5000_fw_cfg xc5000a_1_6_114 = { |
76efb0ba MK |
213 | .name = "dvb-fe-xc5000-1.6.114.fw", |
214 | .size = 12401, | |
215 | }; | |
216 | ||
a3db60bc | 217 | static const struct xc5000_fw_cfg xc5000c_41_024_5_31875 = { |
d8398805 MK |
218 | .name = "dvb-fe-xc5000c-41.024.5-31875.fw", |
219 | .size = 16503, | |
220 | }; | |
221 | ||
a3db60bc | 222 | static inline const struct xc5000_fw_cfg *xc5000_assign_firmware(int chip_id) |
ddea427f | 223 | { |
6fab81df | 224 | switch (chip_id) { |
ddea427f | 225 | default: |
6fab81df | 226 | case XC5000A: |
ddea427f | 227 | return &xc5000a_1_6_114; |
6fab81df | 228 | case XC5000C: |
ddea427f MK |
229 | return &xc5000c_41_024_5_31875; |
230 | } | |
231 | } | |
232 | ||
8e4c6797 | 233 | static int xc_load_fw_and_init_tuner(struct dvb_frontend *fe); |
91bd625e | 234 | static int xc5000_is_firmware_loaded(struct dvb_frontend *fe); |
bdd33563 | 235 | static int xc5000_readreg(struct xc5000_priv *priv, u16 reg, u16 *val); |
91bd625e | 236 | static int xc5000_TunerReset(struct dvb_frontend *fe); |
aacb9d31 | 237 | |
e12671cf | 238 | static int xc_send_i2c_data(struct xc5000_priv *priv, u8 *buf, int len) |
aacb9d31 | 239 | { |
d7800d4e DH |
240 | struct i2c_msg msg = { .addr = priv->i2c_props.addr, |
241 | .flags = 0, .buf = buf, .len = len }; | |
242 | ||
243 | if (i2c_transfer(priv->i2c_props.adap, &msg, 1) != 1) { | |
244 | printk(KERN_ERR "xc5000: I2C write failed (len=%i)\n", len); | |
245 | return XC_RESULT_I2C_WRITE_FAILURE; | |
246 | } | |
247 | return XC_RESULT_SUCCESS; | |
aacb9d31 ST |
248 | } |
249 | ||
1cdffda7 | 250 | #if 0 |
bdd33563 DH |
251 | /* This routine is never used because the only time we read data from the |
252 | i2c bus is when we read registers, and we want that to be an atomic i2c | |
253 | transaction in case we are on a multi-master bus */ | |
e12671cf | 254 | static int xc_read_i2c_data(struct xc5000_priv *priv, u8 *buf, int len) |
aacb9d31 | 255 | { |
bdd33563 DH |
256 | struct i2c_msg msg = { .addr = priv->i2c_props.addr, |
257 | .flags = I2C_M_RD, .buf = buf, .len = len }; | |
258 | ||
259 | if (i2c_transfer(priv->i2c_props.adap, &msg, 1) != 1) { | |
260 | printk(KERN_ERR "xc5000 I2C read failed (len=%i)\n", len); | |
261 | return -EREMOTEIO; | |
262 | } | |
263 | return 0; | |
aacb9d31 | 264 | } |
1cdffda7 | 265 | #endif |
aacb9d31 | 266 | |
4743319f DB |
267 | static int xc5000_readreg(struct xc5000_priv *priv, u16 reg, u16 *val) |
268 | { | |
269 | u8 buf[2] = { reg >> 8, reg & 0xff }; | |
270 | u8 bval[2] = { 0, 0 }; | |
271 | struct i2c_msg msg[2] = { | |
272 | { .addr = priv->i2c_props.addr, | |
273 | .flags = 0, .buf = &buf[0], .len = 2 }, | |
274 | { .addr = priv->i2c_props.addr, | |
275 | .flags = I2C_M_RD, .buf = &bval[0], .len = 2 }, | |
276 | }; | |
277 | ||
278 | if (i2c_transfer(priv->i2c_props.adap, msg, 2) != 2) { | |
279 | printk(KERN_WARNING "xc5000: I2C read failed\n"); | |
280 | return -EREMOTEIO; | |
281 | } | |
282 | ||
283 | *val = (bval[0] << 8) | bval[1]; | |
284 | return XC_RESULT_SUCCESS; | |
285 | } | |
286 | ||
e12671cf | 287 | static void xc_wait(int wait_ms) |
aacb9d31 | 288 | { |
e12671cf | 289 | msleep(wait_ms); |
aacb9d31 ST |
290 | } |
291 | ||
91bd625e | 292 | static int xc5000_TunerReset(struct dvb_frontend *fe) |
aacb9d31 ST |
293 | { |
294 | struct xc5000_priv *priv = fe->tuner_priv; | |
295 | int ret; | |
296 | ||
271ddbf7 | 297 | dprintk(1, "%s()\n", __func__); |
aacb9d31 | 298 | |
d7cba043 MK |
299 | if (fe->callback) { |
300 | ret = fe->callback(((fe->dvb) && (fe->dvb->priv)) ? | |
30650961 MK |
301 | fe->dvb->priv : |
302 | priv->i2c_props.adap->algo_data, | |
d7cba043 | 303 | DVB_FRONTEND_COMPONENT_TUNER, |
30650961 | 304 | XC5000_TUNER_RESET, 0); |
91bd625e | 305 | if (ret) { |
aacb9d31 | 306 | printk(KERN_ERR "xc5000: reset failed\n"); |
91bd625e DH |
307 | return XC_RESULT_RESET_FAILURE; |
308 | } | |
309 | } else { | |
27c685a4 | 310 | printk(KERN_ERR "xc5000: no tuner reset callback function, fatal\n"); |
91bd625e DH |
311 | return XC_RESULT_RESET_FAILURE; |
312 | } | |
313 | return XC_RESULT_SUCCESS; | |
aacb9d31 ST |
314 | } |
315 | ||
e12671cf | 316 | static int xc_write_reg(struct xc5000_priv *priv, u16 regAddr, u16 i2cData) |
aacb9d31 | 317 | { |
e12671cf | 318 | u8 buf[4]; |
a37791c5 | 319 | int WatchDogTimer = 100; |
aacb9d31 ST |
320 | int result; |
321 | ||
322 | buf[0] = (regAddr >> 8) & 0xFF; | |
323 | buf[1] = regAddr & 0xFF; | |
324 | buf[2] = (i2cData >> 8) & 0xFF; | |
325 | buf[3] = i2cData & 0xFF; | |
326 | result = xc_send_i2c_data(priv, buf, 4); | |
e12671cf | 327 | if (result == XC_RESULT_SUCCESS) { |
aacb9d31 ST |
328 | /* wait for busy flag to clear */ |
329 | while ((WatchDogTimer > 0) && (result == XC_RESULT_SUCCESS)) { | |
1cdffda7 | 330 | result = xc5000_readreg(priv, XREG_BUSY, (u16 *)buf); |
aacb9d31 | 331 | if (result == XC_RESULT_SUCCESS) { |
4743319f DB |
332 | if ((buf[0] == 0) && (buf[1] == 0)) { |
333 | /* busy flag cleared */ | |
aacb9d31 | 334 | break; |
4743319f DB |
335 | } else { |
336 | xc_wait(5); /* wait 5 ms */ | |
337 | WatchDogTimer--; | |
aacb9d31 ST |
338 | } |
339 | } | |
340 | } | |
341 | } | |
342 | if (WatchDogTimer < 0) | |
343 | result = XC_RESULT_I2C_WRITE_FAILURE; | |
344 | ||
345 | return result; | |
346 | } | |
347 | ||
c63e87e9 | 348 | static int xc_load_i2c_sequence(struct dvb_frontend *fe, const u8 *i2c_sequence) |
aacb9d31 ST |
349 | { |
350 | struct xc5000_priv *priv = fe->tuner_priv; | |
351 | ||
352 | int i, nbytes_to_send, result; | |
353 | unsigned int len, pos, index; | |
e12671cf | 354 | u8 buf[XC_MAX_I2C_WRITE_LENGTH]; |
aacb9d31 | 355 | |
8f3cd530 ST |
356 | index = 0; |
357 | while ((i2c_sequence[index] != 0xFF) || | |
358 | (i2c_sequence[index + 1] != 0xFF)) { | |
359 | len = i2c_sequence[index] * 256 + i2c_sequence[index+1]; | |
e12671cf | 360 | if (len == 0x0000) { |
aacb9d31 | 361 | /* RESET command */ |
91bd625e | 362 | result = xc5000_TunerReset(fe); |
aacb9d31 | 363 | index += 2; |
e12671cf | 364 | if (result != XC_RESULT_SUCCESS) |
aacb9d31 ST |
365 | return result; |
366 | } else if (len & 0x8000) { | |
367 | /* WAIT command */ | |
368 | xc_wait(len & 0x7FFF); | |
369 | index += 2; | |
370 | } else { | |
371 | /* Send i2c data whilst ensuring individual transactions | |
372 | * do not exceed XC_MAX_I2C_WRITE_LENGTH bytes. | |
373 | */ | |
374 | index += 2; | |
375 | buf[0] = i2c_sequence[index]; | |
376 | buf[1] = i2c_sequence[index + 1]; | |
377 | pos = 2; | |
378 | while (pos < len) { | |
8f3cd530 ST |
379 | if ((len - pos) > XC_MAX_I2C_WRITE_LENGTH - 2) |
380 | nbytes_to_send = | |
381 | XC_MAX_I2C_WRITE_LENGTH; | |
382 | else | |
aacb9d31 | 383 | nbytes_to_send = (len - pos + 2); |
8f3cd530 ST |
384 | for (i = 2; i < nbytes_to_send; i++) { |
385 | buf[i] = i2c_sequence[index + pos + | |
386 | i - 2]; | |
aacb9d31 | 387 | } |
8f3cd530 ST |
388 | result = xc_send_i2c_data(priv, buf, |
389 | nbytes_to_send); | |
aacb9d31 | 390 | |
e12671cf | 391 | if (result != XC_RESULT_SUCCESS) |
aacb9d31 ST |
392 | return result; |
393 | ||
394 | pos += nbytes_to_send - 2; | |
395 | } | |
396 | index += len; | |
397 | } | |
398 | } | |
399 | return XC_RESULT_SUCCESS; | |
400 | } | |
401 | ||
e12671cf | 402 | static int xc_initialize(struct xc5000_priv *priv) |
aacb9d31 | 403 | { |
271ddbf7 | 404 | dprintk(1, "%s()\n", __func__); |
aacb9d31 ST |
405 | return xc_write_reg(priv, XREG_INIT, 0); |
406 | } | |
407 | ||
e12671cf ST |
408 | static int xc_SetTVStandard(struct xc5000_priv *priv, |
409 | u16 VideoMode, u16 AudioMode) | |
aacb9d31 ST |
410 | { |
411 | int ret; | |
271ddbf7 | 412 | dprintk(1, "%s(0x%04x,0x%04x)\n", __func__, VideoMode, AudioMode); |
aacb9d31 | 413 | dprintk(1, "%s() Standard = %s\n", |
271ddbf7 | 414 | __func__, |
aacb9d31 ST |
415 | XC5000_Standard[priv->video_standard].Name); |
416 | ||
417 | ret = xc_write_reg(priv, XREG_VIDEO_MODE, VideoMode); | |
418 | if (ret == XC_RESULT_SUCCESS) | |
419 | ret = xc_write_reg(priv, XREG_AUDIO_MODE, AudioMode); | |
420 | ||
421 | return ret; | |
422 | } | |
423 | ||
e12671cf | 424 | static int xc_SetSignalSource(struct xc5000_priv *priv, u16 rf_mode) |
aacb9d31 | 425 | { |
271ddbf7 | 426 | dprintk(1, "%s(%d) Source = %s\n", __func__, rf_mode, |
aacb9d31 ST |
427 | rf_mode == XC_RF_MODE_AIR ? "ANTENNA" : "CABLE"); |
428 | ||
8f3cd530 | 429 | if ((rf_mode != XC_RF_MODE_AIR) && (rf_mode != XC_RF_MODE_CABLE)) { |
aacb9d31 ST |
430 | rf_mode = XC_RF_MODE_CABLE; |
431 | printk(KERN_ERR | |
432 | "%s(), Invalid mode, defaulting to CABLE", | |
271ddbf7 | 433 | __func__); |
aacb9d31 ST |
434 | } |
435 | return xc_write_reg(priv, XREG_SIGNALSOURCE, rf_mode); | |
436 | } | |
437 | ||
e12671cf | 438 | static const struct dvb_tuner_ops xc5000_tuner_ops; |
aacb9d31 | 439 | |
e12671cf ST |
440 | static int xc_set_RF_frequency(struct xc5000_priv *priv, u32 freq_hz) |
441 | { | |
442 | u16 freq_code; | |
aacb9d31 | 443 | |
271ddbf7 | 444 | dprintk(1, "%s(%u)\n", __func__, freq_hz); |
aacb9d31 | 445 | |
e12671cf ST |
446 | if ((freq_hz > xc5000_tuner_ops.info.frequency_max) || |
447 | (freq_hz < xc5000_tuner_ops.info.frequency_min)) | |
aacb9d31 ST |
448 | return XC_RESULT_OUT_OF_RANGE; |
449 | ||
e12671cf ST |
450 | freq_code = (u16)(freq_hz / 15625); |
451 | ||
81c4dfe7 DH |
452 | /* Starting in firmware version 1.1.44, Xceive recommends using the |
453 | FINERFREQ for all normal tuning (the doc indicates reg 0x03 should | |
454 | only be used for fast scanning for channel lock) */ | |
455 | return xc_write_reg(priv, XREG_FINERFREQ, freq_code); | |
aacb9d31 ST |
456 | } |
457 | ||
aacb9d31 | 458 | |
e12671cf ST |
459 | static int xc_set_IF_frequency(struct xc5000_priv *priv, u32 freq_khz) |
460 | { | |
461 | u32 freq_code = (freq_khz * 1024)/1000; | |
462 | dprintk(1, "%s(freq_khz = %d) freq_code = 0x%x\n", | |
271ddbf7 | 463 | __func__, freq_khz, freq_code); |
aacb9d31 | 464 | |
e12671cf | 465 | return xc_write_reg(priv, XREG_IF_OUT, freq_code); |
aacb9d31 ST |
466 | } |
467 | ||
aacb9d31 | 468 | |
e12671cf | 469 | static int xc_get_ADC_Envelope(struct xc5000_priv *priv, u16 *adc_envelope) |
aacb9d31 | 470 | { |
bdd33563 | 471 | return xc5000_readreg(priv, XREG_ADC_ENV, adc_envelope); |
aacb9d31 ST |
472 | } |
473 | ||
e12671cf | 474 | static int xc_get_frequency_error(struct xc5000_priv *priv, u32 *freq_error_hz) |
aacb9d31 ST |
475 | { |
476 | int result; | |
e12671cf | 477 | u16 regData; |
aacb9d31 ST |
478 | u32 tmp; |
479 | ||
bdd33563 | 480 | result = xc5000_readreg(priv, XREG_FREQ_ERROR, ®Data); |
7988fc21 | 481 | if (result != XC_RESULT_SUCCESS) |
aacb9d31 ST |
482 | return result; |
483 | ||
484 | tmp = (u32)regData; | |
e12671cf | 485 | (*freq_error_hz) = (tmp * 15625) / 1000; |
aacb9d31 ST |
486 | return result; |
487 | } | |
488 | ||
e12671cf | 489 | static int xc_get_lock_status(struct xc5000_priv *priv, u16 *lock_status) |
aacb9d31 | 490 | { |
bdd33563 | 491 | return xc5000_readreg(priv, XREG_LOCK, lock_status); |
aacb9d31 ST |
492 | } |
493 | ||
e12671cf ST |
494 | static int xc_get_version(struct xc5000_priv *priv, |
495 | u8 *hw_majorversion, u8 *hw_minorversion, | |
496 | u8 *fw_majorversion, u8 *fw_minorversion) | |
aacb9d31 | 497 | { |
e12671cf | 498 | u16 data; |
aacb9d31 ST |
499 | int result; |
500 | ||
bdd33563 | 501 | result = xc5000_readreg(priv, XREG_VERSION, &data); |
7988fc21 | 502 | if (result != XC_RESULT_SUCCESS) |
aacb9d31 ST |
503 | return result; |
504 | ||
e12671cf ST |
505 | (*hw_majorversion) = (data >> 12) & 0x0F; |
506 | (*hw_minorversion) = (data >> 8) & 0x0F; | |
507 | (*fw_majorversion) = (data >> 4) & 0x0F; | |
508 | (*fw_minorversion) = data & 0x0F; | |
aacb9d31 ST |
509 | |
510 | return 0; | |
511 | } | |
512 | ||
bae7b7d7 DH |
513 | static int xc_get_buildversion(struct xc5000_priv *priv, u16 *buildrev) |
514 | { | |
515 | return xc5000_readreg(priv, XREG_BUILD, buildrev); | |
516 | } | |
517 | ||
e12671cf | 518 | static int xc_get_hsync_freq(struct xc5000_priv *priv, u32 *hsync_freq_hz) |
aacb9d31 | 519 | { |
e12671cf | 520 | u16 regData; |
aacb9d31 ST |
521 | int result; |
522 | ||
bdd33563 | 523 | result = xc5000_readreg(priv, XREG_HSYNC_FREQ, ®Data); |
7988fc21 | 524 | if (result != XC_RESULT_SUCCESS) |
aacb9d31 ST |
525 | return result; |
526 | ||
527 | (*hsync_freq_hz) = ((regData & 0x0fff) * 763)/100; | |
528 | return result; | |
529 | } | |
530 | ||
e12671cf | 531 | static int xc_get_frame_lines(struct xc5000_priv *priv, u16 *frame_lines) |
aacb9d31 | 532 | { |
bdd33563 | 533 | return xc5000_readreg(priv, XREG_FRAME_LINES, frame_lines); |
aacb9d31 ST |
534 | } |
535 | ||
e12671cf | 536 | static int xc_get_quality(struct xc5000_priv *priv, u16 *quality) |
aacb9d31 | 537 | { |
bdd33563 | 538 | return xc5000_readreg(priv, XREG_QUALITY, quality); |
aacb9d31 ST |
539 | } |
540 | ||
e12671cf | 541 | static u16 WaitForLock(struct xc5000_priv *priv) |
aacb9d31 | 542 | { |
e12671cf | 543 | u16 lockState = 0; |
aacb9d31 | 544 | int watchDogCount = 40; |
e12671cf ST |
545 | |
546 | while ((lockState == 0) && (watchDogCount > 0)) { | |
aacb9d31 | 547 | xc_get_lock_status(priv, &lockState); |
e12671cf | 548 | if (lockState != 1) { |
aacb9d31 ST |
549 | xc_wait(5); |
550 | watchDogCount--; | |
551 | } | |
552 | } | |
553 | return lockState; | |
554 | } | |
555 | ||
a78baacf DH |
556 | #define XC_TUNE_ANALOG 0 |
557 | #define XC_TUNE_DIGITAL 1 | |
558 | static int xc_tune_channel(struct xc5000_priv *priv, u32 freq_hz, int mode) | |
aacb9d31 ST |
559 | { |
560 | int found = 0; | |
561 | ||
271ddbf7 | 562 | dprintk(1, "%s(%u)\n", __func__, freq_hz); |
aacb9d31 | 563 | |
e12671cf | 564 | if (xc_set_RF_frequency(priv, freq_hz) != XC_RESULT_SUCCESS) |
aacb9d31 ST |
565 | return 0; |
566 | ||
a78baacf DH |
567 | if (mode == XC_TUNE_ANALOG) { |
568 | if (WaitForLock(priv) == 1) | |
569 | found = 1; | |
570 | } | |
aacb9d31 ST |
571 | |
572 | return found; | |
573 | } | |
574 | ||
aacb9d31 | 575 | |
8f3cd530 | 576 | static int xc5000_fwupload(struct dvb_frontend *fe) |
aacb9d31 ST |
577 | { |
578 | struct xc5000_priv *priv = fe->tuner_priv; | |
579 | const struct firmware *fw; | |
580 | int ret; | |
a3db60bc MK |
581 | const struct xc5000_fw_cfg *desired_fw = |
582 | xc5000_assign_firmware(priv->chip_id); | |
aacb9d31 | 583 | |
e12671cf ST |
584 | /* request the firmware, this will block and timeout */ |
585 | printk(KERN_INFO "xc5000: waiting for firmware upload (%s)...\n", | |
6fab81df | 586 | desired_fw->name); |
e12671cf | 587 | |
6fab81df | 588 | ret = request_firmware(&fw, desired_fw->name, |
e9785250 | 589 | priv->i2c_props.adap->dev.parent); |
aacb9d31 ST |
590 | if (ret) { |
591 | printk(KERN_ERR "xc5000: Upload failed. (file not found?)\n"); | |
592 | ret = XC_RESULT_RESET_FAILURE; | |
5ea60531 | 593 | goto out; |
aacb9d31 | 594 | } else { |
34a0db92 | 595 | printk(KERN_DEBUG "xc5000: firmware read %Zu bytes.\n", |
3f51451b | 596 | fw->size); |
aacb9d31 ST |
597 | ret = XC_RESULT_SUCCESS; |
598 | } | |
599 | ||
6fab81df | 600 | if (fw->size != desired_fw->size) { |
aacb9d31 ST |
601 | printk(KERN_ERR "xc5000: firmware incorrect size\n"); |
602 | ret = XC_RESULT_RESET_FAILURE; | |
603 | } else { | |
34a0db92 | 604 | printk(KERN_INFO "xc5000: firmware uploading...\n"); |
8f3cd530 | 605 | ret = xc_load_i2c_sequence(fe, fw->data); |
34a0db92 | 606 | printk(KERN_INFO "xc5000: firmware upload complete...\n"); |
aacb9d31 ST |
607 | } |
608 | ||
5ea60531 | 609 | out: |
aacb9d31 ST |
610 | release_firmware(fw); |
611 | return ret; | |
612 | } | |
613 | ||
e12671cf | 614 | static void xc_debug_dump(struct xc5000_priv *priv) |
aacb9d31 | 615 | { |
e12671cf ST |
616 | u16 adc_envelope; |
617 | u32 freq_error_hz = 0; | |
618 | u16 lock_status; | |
619 | u32 hsync_freq_hz = 0; | |
620 | u16 frame_lines; | |
621 | u16 quality; | |
622 | u8 hw_majorversion = 0, hw_minorversion = 0; | |
623 | u8 fw_majorversion = 0, fw_minorversion = 0; | |
bae7b7d7 | 624 | u16 fw_buildversion = 0; |
aacb9d31 ST |
625 | |
626 | /* Wait for stats to stabilize. | |
627 | * Frame Lines needs two frame times after initial lock | |
628 | * before it is valid. | |
629 | */ | |
e12671cf | 630 | xc_wait(100); |
aacb9d31 | 631 | |
e12671cf ST |
632 | xc_get_ADC_Envelope(priv, &adc_envelope); |
633 | dprintk(1, "*** ADC envelope (0-1023) = %d\n", adc_envelope); | |
aacb9d31 | 634 | |
e12671cf ST |
635 | xc_get_frequency_error(priv, &freq_error_hz); |
636 | dprintk(1, "*** Frequency error = %d Hz\n", freq_error_hz); | |
aacb9d31 | 637 | |
e12671cf ST |
638 | xc_get_lock_status(priv, &lock_status); |
639 | dprintk(1, "*** Lock status (0-Wait, 1-Locked, 2-No-signal) = %d\n", | |
aacb9d31 ST |
640 | lock_status); |
641 | ||
642 | xc_get_version(priv, &hw_majorversion, &hw_minorversion, | |
e12671cf | 643 | &fw_majorversion, &fw_minorversion); |
bae7b7d7 DH |
644 | xc_get_buildversion(priv, &fw_buildversion); |
645 | dprintk(1, "*** HW: V%02x.%02x, FW: V%02x.%02x.%04x\n", | |
aacb9d31 | 646 | hw_majorversion, hw_minorversion, |
bae7b7d7 | 647 | fw_majorversion, fw_minorversion, fw_buildversion); |
aacb9d31 | 648 | |
e12671cf ST |
649 | xc_get_hsync_freq(priv, &hsync_freq_hz); |
650 | dprintk(1, "*** Horizontal sync frequency = %d Hz\n", hsync_freq_hz); | |
aacb9d31 | 651 | |
e12671cf ST |
652 | xc_get_frame_lines(priv, &frame_lines); |
653 | dprintk(1, "*** Frame lines = %d\n", frame_lines); | |
aacb9d31 | 654 | |
e12671cf ST |
655 | xc_get_quality(priv, &quality); |
656 | dprintk(1, "*** Quality (0:<8dB, 7:>56dB) = %d\n", quality); | |
aacb9d31 ST |
657 | } |
658 | ||
14d24d14 | 659 | static int xc5000_set_params(struct dvb_frontend *fe) |
aacb9d31 | 660 | { |
fd66c45d | 661 | int ret, b; |
aacb9d31 | 662 | struct xc5000_priv *priv = fe->tuner_priv; |
fd66c45d MCC |
663 | u32 bw = fe->dtv_property_cache.bandwidth_hz; |
664 | u32 freq = fe->dtv_property_cache.frequency; | |
665 | u32 delsys = fe->dtv_property_cache.delivery_system; | |
aacb9d31 | 666 | |
760c466c DH |
667 | if (xc5000_is_firmware_loaded(fe) != XC_RESULT_SUCCESS) { |
668 | if (xc_load_fw_and_init_tuner(fe) != XC_RESULT_SUCCESS) { | |
669 | dprintk(1, "Unable to load firmware and init tuner\n"); | |
670 | return -EINVAL; | |
671 | } | |
672 | } | |
8e4c6797 | 673 | |
fd66c45d | 674 | dprintk(1, "%s() frequency=%d (Hz)\n", __func__, freq); |
aacb9d31 | 675 | |
fd66c45d MCC |
676 | switch (delsys) { |
677 | case SYS_ATSC: | |
678 | dprintk(1, "%s() VSB modulation\n", __func__); | |
679 | priv->rf_mode = XC_RF_MODE_AIR; | |
680 | priv->freq_hz = freq - 1750000; | |
fd66c45d MCC |
681 | priv->video_standard = DTV6; |
682 | break; | |
683 | case SYS_DVBC_ANNEX_B: | |
684 | dprintk(1, "%s() QAM modulation\n", __func__); | |
685 | priv->rf_mode = XC_RF_MODE_CABLE; | |
686 | priv->freq_hz = freq - 1750000; | |
fd66c45d MCC |
687 | priv->video_standard = DTV6; |
688 | break; | |
689 | case SYS_DVBT: | |
690 | case SYS_DVBT2: | |
6c99080d | 691 | dprintk(1, "%s() OFDM\n", __func__); |
fd66c45d MCC |
692 | switch (bw) { |
693 | case 6000000: | |
6c99080d | 694 | priv->video_standard = DTV6; |
fd66c45d | 695 | priv->freq_hz = freq - 1750000; |
6c99080d | 696 | break; |
fd66c45d | 697 | case 7000000: |
0433cd28 | 698 | priv->video_standard = DTV7; |
fd66c45d | 699 | priv->freq_hz = freq - 2250000; |
0433cd28 | 700 | break; |
fd66c45d | 701 | case 8000000: |
6c99080d | 702 | priv->video_standard = DTV8; |
fd66c45d | 703 | priv->freq_hz = freq - 2750000; |
6c99080d DW |
704 | break; |
705 | default: | |
706 | printk(KERN_ERR "xc5000 bandwidth not set!\n"); | |
707 | return -EINVAL; | |
708 | } | |
aacb9d31 | 709 | priv->rf_mode = XC_RF_MODE_AIR; |
fd66c45d MCC |
710 | case SYS_DVBC_ANNEX_A: |
711 | case SYS_DVBC_ANNEX_C: | |
712 | dprintk(1, "%s() QAM modulation\n", __func__); | |
713 | priv->rf_mode = XC_RF_MODE_CABLE; | |
714 | if (bw <= 6000000) { | |
fd66c45d MCC |
715 | priv->video_standard = DTV6; |
716 | priv->freq_hz = freq - 1750000; | |
717 | b = 6; | |
718 | } else if (bw <= 7000000) { | |
fd66c45d MCC |
719 | priv->video_standard = DTV7; |
720 | priv->freq_hz = freq - 2250000; | |
721 | b = 7; | |
722 | } else { | |
fd66c45d MCC |
723 | priv->video_standard = DTV7_8; |
724 | priv->freq_hz = freq - 2750000; | |
725 | b = 8; | |
e80edce1 | 726 | } |
fd66c45d MCC |
727 | dprintk(1, "%s() Bandwidth %dMHz (%d)\n", __func__, |
728 | b, bw); | |
729 | break; | |
730 | default: | |
731 | printk(KERN_ERR "xc5000: delivery system is not supported!\n"); | |
aacb9d31 ST |
732 | return -EINVAL; |
733 | } | |
734 | ||
fd66c45d MCC |
735 | dprintk(1, "%s() frequency=%d (compensated to %d)\n", |
736 | __func__, freq, priv->freq_hz); | |
aacb9d31 | 737 | |
e12671cf ST |
738 | ret = xc_SetSignalSource(priv, priv->rf_mode); |
739 | if (ret != XC_RESULT_SUCCESS) { | |
740 | printk(KERN_ERR | |
741 | "xc5000: xc_SetSignalSource(%d) failed\n", | |
742 | priv->rf_mode); | |
743 | return -EREMOTEIO; | |
744 | } | |
aacb9d31 | 745 | |
e12671cf | 746 | ret = xc_SetTVStandard(priv, |
aacb9d31 ST |
747 | XC5000_Standard[priv->video_standard].VideoMode, |
748 | XC5000_Standard[priv->video_standard].AudioMode); | |
e12671cf ST |
749 | if (ret != XC_RESULT_SUCCESS) { |
750 | printk(KERN_ERR "xc5000: xc_SetTVStandard failed\n"); | |
751 | return -EREMOTEIO; | |
752 | } | |
753 | ||
2a6003c2 | 754 | ret = xc_set_IF_frequency(priv, priv->if_khz); |
e12671cf ST |
755 | if (ret != XC_RESULT_SUCCESS) { |
756 | printk(KERN_ERR "xc5000: xc_Set_IF_frequency(%d) failed\n", | |
2a6003c2 | 757 | priv->if_khz); |
e12671cf ST |
758 | return -EIO; |
759 | } | |
760 | ||
724dcbfa DB |
761 | xc_write_reg(priv, XREG_OUTPUT_AMP, 0x8a); |
762 | ||
a78baacf | 763 | xc_tune_channel(priv, priv->freq_hz, XC_TUNE_DIGITAL); |
aacb9d31 | 764 | |
e12671cf ST |
765 | if (debug) |
766 | xc_debug_dump(priv); | |
aacb9d31 | 767 | |
c6f56e7d MCC |
768 | priv->bandwidth = bw; |
769 | ||
aacb9d31 ST |
770 | return 0; |
771 | } | |
772 | ||
e470d817 ST |
773 | static int xc5000_is_firmware_loaded(struct dvb_frontend *fe) |
774 | { | |
775 | struct xc5000_priv *priv = fe->tuner_priv; | |
776 | int ret; | |
777 | u16 id; | |
778 | ||
779 | ret = xc5000_readreg(priv, XREG_PRODUCT_ID, &id); | |
780 | if (ret == XC_RESULT_SUCCESS) { | |
781 | if (id == XC_PRODUCT_ID_FW_NOT_LOADED) | |
782 | ret = XC_RESULT_RESET_FAILURE; | |
783 | else | |
784 | ret = XC_RESULT_SUCCESS; | |
785 | } | |
786 | ||
787 | dprintk(1, "%s() returns %s id = 0x%x\n", __func__, | |
788 | ret == XC_RESULT_SUCCESS ? "True" : "False", id); | |
789 | return ret; | |
790 | } | |
791 | ||
d7009cdc | 792 | static int xc5000_set_tv_freq(struct dvb_frontend *fe, |
27c685a4 ST |
793 | struct analog_parameters *params) |
794 | { | |
795 | struct xc5000_priv *priv = fe->tuner_priv; | |
796 | int ret; | |
797 | ||
27c685a4 | 798 | dprintk(1, "%s() frequency=%d (in units of 62.5khz)\n", |
271ddbf7 | 799 | __func__, params->frequency); |
27c685a4 | 800 | |
1fab14ed MCC |
801 | /* Fix me: it could be air. */ |
802 | priv->rf_mode = params->mode; | |
803 | if (params->mode > XC_RF_MODE_CABLE) | |
804 | priv->rf_mode = XC_RF_MODE_CABLE; | |
27c685a4 ST |
805 | |
806 | /* params->frequency is in units of 62.5khz */ | |
807 | priv->freq_hz = params->frequency * 62500; | |
808 | ||
809 | /* FIX ME: Some video standards may have several possible audio | |
810 | standards. We simply default to one of them here. | |
811 | */ | |
8f3cd530 | 812 | if (params->std & V4L2_STD_MN) { |
27c685a4 ST |
813 | /* default to BTSC audio standard */ |
814 | priv->video_standard = MN_NTSC_PAL_BTSC; | |
815 | goto tune_channel; | |
816 | } | |
817 | ||
8f3cd530 | 818 | if (params->std & V4L2_STD_PAL_BG) { |
27c685a4 ST |
819 | /* default to NICAM audio standard */ |
820 | priv->video_standard = BG_PAL_NICAM; | |
821 | goto tune_channel; | |
822 | } | |
823 | ||
8f3cd530 | 824 | if (params->std & V4L2_STD_PAL_I) { |
27c685a4 ST |
825 | /* default to NICAM audio standard */ |
826 | priv->video_standard = I_PAL_NICAM; | |
827 | goto tune_channel; | |
828 | } | |
829 | ||
8f3cd530 | 830 | if (params->std & V4L2_STD_PAL_DK) { |
27c685a4 ST |
831 | /* default to NICAM audio standard */ |
832 | priv->video_standard = DK_PAL_NICAM; | |
833 | goto tune_channel; | |
834 | } | |
835 | ||
8f3cd530 | 836 | if (params->std & V4L2_STD_SECAM_DK) { |
27c685a4 ST |
837 | /* default to A2 DK1 audio standard */ |
838 | priv->video_standard = DK_SECAM_A2DK1; | |
839 | goto tune_channel; | |
840 | } | |
841 | ||
8f3cd530 | 842 | if (params->std & V4L2_STD_SECAM_L) { |
27c685a4 ST |
843 | priv->video_standard = L_SECAM_NICAM; |
844 | goto tune_channel; | |
845 | } | |
846 | ||
8f3cd530 | 847 | if (params->std & V4L2_STD_SECAM_LC) { |
27c685a4 ST |
848 | priv->video_standard = LC_SECAM_NICAM; |
849 | goto tune_channel; | |
850 | } | |
851 | ||
852 | tune_channel: | |
853 | ret = xc_SetSignalSource(priv, priv->rf_mode); | |
854 | if (ret != XC_RESULT_SUCCESS) { | |
8f3cd530 | 855 | printk(KERN_ERR |
27c685a4 ST |
856 | "xc5000: xc_SetSignalSource(%d) failed\n", |
857 | priv->rf_mode); | |
858 | return -EREMOTEIO; | |
859 | } | |
860 | ||
861 | ret = xc_SetTVStandard(priv, | |
862 | XC5000_Standard[priv->video_standard].VideoMode, | |
863 | XC5000_Standard[priv->video_standard].AudioMode); | |
864 | if (ret != XC_RESULT_SUCCESS) { | |
865 | printk(KERN_ERR "xc5000: xc_SetTVStandard failed\n"); | |
866 | return -EREMOTEIO; | |
867 | } | |
868 | ||
724dcbfa DB |
869 | xc_write_reg(priv, XREG_OUTPUT_AMP, 0x09); |
870 | ||
a78baacf | 871 | xc_tune_channel(priv, priv->freq_hz, XC_TUNE_ANALOG); |
27c685a4 ST |
872 | |
873 | if (debug) | |
874 | xc_debug_dump(priv); | |
875 | ||
876 | return 0; | |
877 | } | |
878 | ||
d7009cdc BILDB |
879 | static int xc5000_set_radio_freq(struct dvb_frontend *fe, |
880 | struct analog_parameters *params) | |
881 | { | |
882 | struct xc5000_priv *priv = fe->tuner_priv; | |
883 | int ret = -EINVAL; | |
496e9057 | 884 | u8 radio_input; |
d7009cdc BILDB |
885 | |
886 | dprintk(1, "%s() frequency=%d (in units of khz)\n", | |
887 | __func__, params->frequency); | |
888 | ||
496e9057 DH |
889 | if (priv->radio_input == XC5000_RADIO_NOT_CONFIGURED) { |
890 | dprintk(1, "%s() radio input not configured\n", __func__); | |
891 | return -EINVAL; | |
892 | } | |
893 | ||
894 | if (priv->radio_input == XC5000_RADIO_FM1) | |
895 | radio_input = FM_Radio_INPUT1; | |
896 | else if (priv->radio_input == XC5000_RADIO_FM2) | |
897 | radio_input = FM_Radio_INPUT2; | |
724dcbfa DB |
898 | else if (priv->radio_input == XC5000_RADIO_FM1_MONO) |
899 | radio_input = FM_Radio_INPUT1_MONO; | |
496e9057 DH |
900 | else { |
901 | dprintk(1, "%s() unknown radio input %d\n", __func__, | |
902 | priv->radio_input); | |
903 | return -EINVAL; | |
904 | } | |
905 | ||
d7009cdc BILDB |
906 | priv->freq_hz = params->frequency * 125 / 2; |
907 | ||
908 | priv->rf_mode = XC_RF_MODE_AIR; | |
909 | ||
496e9057 DH |
910 | ret = xc_SetTVStandard(priv, XC5000_Standard[radio_input].VideoMode, |
911 | XC5000_Standard[radio_input].AudioMode); | |
d7009cdc BILDB |
912 | |
913 | if (ret != XC_RESULT_SUCCESS) { | |
914 | printk(KERN_ERR "xc5000: xc_SetTVStandard failed\n"); | |
915 | return -EREMOTEIO; | |
916 | } | |
917 | ||
918 | ret = xc_SetSignalSource(priv, priv->rf_mode); | |
919 | if (ret != XC_RESULT_SUCCESS) { | |
920 | printk(KERN_ERR | |
921 | "xc5000: xc_SetSignalSource(%d) failed\n", | |
922 | priv->rf_mode); | |
923 | return -EREMOTEIO; | |
924 | } | |
925 | ||
724dcbfa DB |
926 | if ((priv->radio_input == XC5000_RADIO_FM1) || |
927 | (priv->radio_input == XC5000_RADIO_FM2)) | |
928 | xc_write_reg(priv, XREG_OUTPUT_AMP, 0x09); | |
929 | else if (priv->radio_input == XC5000_RADIO_FM1_MONO) | |
930 | xc_write_reg(priv, XREG_OUTPUT_AMP, 0x06); | |
931 | ||
d7009cdc BILDB |
932 | xc_tune_channel(priv, priv->freq_hz, XC_TUNE_ANALOG); |
933 | ||
934 | return 0; | |
935 | } | |
936 | ||
937 | static int xc5000_set_analog_params(struct dvb_frontend *fe, | |
938 | struct analog_parameters *params) | |
939 | { | |
940 | struct xc5000_priv *priv = fe->tuner_priv; | |
941 | int ret = -EINVAL; | |
942 | ||
943 | if (priv->i2c_props.adap == NULL) | |
944 | return -EINVAL; | |
945 | ||
760c466c DH |
946 | if (xc5000_is_firmware_loaded(fe) != XC_RESULT_SUCCESS) { |
947 | if (xc_load_fw_and_init_tuner(fe) != XC_RESULT_SUCCESS) { | |
948 | dprintk(1, "Unable to load firmware and init tuner\n"); | |
949 | return -EINVAL; | |
950 | } | |
951 | } | |
d7009cdc BILDB |
952 | |
953 | switch (params->mode) { | |
954 | case V4L2_TUNER_RADIO: | |
955 | ret = xc5000_set_radio_freq(fe, params); | |
956 | break; | |
957 | case V4L2_TUNER_ANALOG_TV: | |
958 | case V4L2_TUNER_DIGITAL_TV: | |
959 | ret = xc5000_set_tv_freq(fe, params); | |
960 | break; | |
961 | } | |
962 | ||
963 | return ret; | |
964 | } | |
965 | ||
966 | ||
aacb9d31 ST |
967 | static int xc5000_get_frequency(struct dvb_frontend *fe, u32 *freq) |
968 | { | |
969 | struct xc5000_priv *priv = fe->tuner_priv; | |
271ddbf7 | 970 | dprintk(1, "%s()\n", __func__); |
e12671cf | 971 | *freq = priv->freq_hz; |
aacb9d31 ST |
972 | return 0; |
973 | } | |
974 | ||
35621030 MCC |
975 | static int xc5000_get_if_frequency(struct dvb_frontend *fe, u32 *freq) |
976 | { | |
977 | struct xc5000_priv *priv = fe->tuner_priv; | |
978 | dprintk(1, "%s()\n", __func__); | |
979 | *freq = priv->if_khz * 1000; | |
980 | return 0; | |
981 | } | |
982 | ||
aacb9d31 ST |
983 | static int xc5000_get_bandwidth(struct dvb_frontend *fe, u32 *bw) |
984 | { | |
985 | struct xc5000_priv *priv = fe->tuner_priv; | |
271ddbf7 | 986 | dprintk(1, "%s()\n", __func__); |
27c685a4 | 987 | |
aacb9d31 ST |
988 | *bw = priv->bandwidth; |
989 | return 0; | |
990 | } | |
991 | ||
992 | static int xc5000_get_status(struct dvb_frontend *fe, u32 *status) | |
993 | { | |
994 | struct xc5000_priv *priv = fe->tuner_priv; | |
e12671cf | 995 | u16 lock_status = 0; |
aacb9d31 ST |
996 | |
997 | xc_get_lock_status(priv, &lock_status); | |
998 | ||
271ddbf7 | 999 | dprintk(1, "%s() lock_status = 0x%08x\n", __func__, lock_status); |
aacb9d31 ST |
1000 | |
1001 | *status = lock_status; | |
1002 | ||
1003 | return 0; | |
1004 | } | |
1005 | ||
e12671cf | 1006 | static int xc_load_fw_and_init_tuner(struct dvb_frontend *fe) |
aacb9d31 ST |
1007 | { |
1008 | struct xc5000_priv *priv = fe->tuner_priv; | |
27c685a4 | 1009 | int ret = 0; |
aacb9d31 | 1010 | |
e470d817 | 1011 | if (xc5000_is_firmware_loaded(fe) != XC_RESULT_SUCCESS) { |
aacb9d31 | 1012 | ret = xc5000_fwupload(fe); |
e12671cf ST |
1013 | if (ret != XC_RESULT_SUCCESS) |
1014 | return ret; | |
aacb9d31 ST |
1015 | } |
1016 | ||
1017 | /* Start the tuner self-calibration process */ | |
1018 | ret |= xc_initialize(priv); | |
1019 | ||
1020 | /* Wait for calibration to complete. | |
1021 | * We could continue but XC5000 will clock stretch subsequent | |
1022 | * I2C transactions until calibration is complete. This way we | |
1023 | * don't have to rely on clock stretching working. | |
1024 | */ | |
8f3cd530 | 1025 | xc_wait(100); |
aacb9d31 ST |
1026 | |
1027 | /* Default to "CABLE" mode */ | |
1028 | ret |= xc_write_reg(priv, XREG_SIGNALSOURCE, XC_RF_MODE_CABLE); | |
1029 | ||
1030 | return ret; | |
1031 | } | |
1032 | ||
e12671cf ST |
1033 | static int xc5000_sleep(struct dvb_frontend *fe) |
1034 | { | |
27c685a4 ST |
1035 | int ret; |
1036 | ||
271ddbf7 | 1037 | dprintk(1, "%s()\n", __func__); |
e12671cf | 1038 | |
b6bd5eb8 DH |
1039 | /* Avoid firmware reload on slow devices */ |
1040 | if (no_poweroff) | |
1041 | return 0; | |
1042 | ||
7f05b530 DH |
1043 | /* According to Xceive technical support, the "powerdown" register |
1044 | was removed in newer versions of the firmware. The "supported" | |
1045 | way to sleep the tuner is to pull the reset pin low for 10ms */ | |
1046 | ret = xc5000_TunerReset(fe); | |
8f3cd530 | 1047 | if (ret != XC_RESULT_SUCCESS) { |
27c685a4 ST |
1048 | printk(KERN_ERR |
1049 | "xc5000: %s() unable to shutdown tuner\n", | |
271ddbf7 | 1050 | __func__); |
27c685a4 | 1051 | return -EREMOTEIO; |
8f3cd530 | 1052 | } else |
27c685a4 | 1053 | return XC_RESULT_SUCCESS; |
e12671cf ST |
1054 | } |
1055 | ||
aacb9d31 ST |
1056 | static int xc5000_init(struct dvb_frontend *fe) |
1057 | { | |
1058 | struct xc5000_priv *priv = fe->tuner_priv; | |
271ddbf7 | 1059 | dprintk(1, "%s()\n", __func__); |
aacb9d31 | 1060 | |
e12671cf ST |
1061 | if (xc_load_fw_and_init_tuner(fe) != XC_RESULT_SUCCESS) { |
1062 | printk(KERN_ERR "xc5000: Unable to initialise tuner\n"); | |
1063 | return -EREMOTEIO; | |
1064 | } | |
1065 | ||
1066 | if (debug) | |
1067 | xc_debug_dump(priv); | |
aacb9d31 ST |
1068 | |
1069 | return 0; | |
1070 | } | |
1071 | ||
1072 | static int xc5000_release(struct dvb_frontend *fe) | |
1073 | { | |
89fd2854 MK |
1074 | struct xc5000_priv *priv = fe->tuner_priv; |
1075 | ||
271ddbf7 | 1076 | dprintk(1, "%s()\n", __func__); |
89fd2854 MK |
1077 | |
1078 | mutex_lock(&xc5000_list_mutex); | |
1079 | ||
1080 | if (priv) | |
1081 | hybrid_tuner_release_state(priv); | |
1082 | ||
1083 | mutex_unlock(&xc5000_list_mutex); | |
1084 | ||
aacb9d31 | 1085 | fe->tuner_priv = NULL; |
89fd2854 | 1086 | |
aacb9d31 ST |
1087 | return 0; |
1088 | } | |
1089 | ||
724dcbfa DB |
1090 | static int xc5000_set_config(struct dvb_frontend *fe, void *priv_cfg) |
1091 | { | |
1092 | struct xc5000_priv *priv = fe->tuner_priv; | |
1093 | struct xc5000_config *p = priv_cfg; | |
1094 | ||
1095 | dprintk(1, "%s()\n", __func__); | |
1096 | ||
1097 | if (p->if_khz) | |
1098 | priv->if_khz = p->if_khz; | |
1099 | ||
1100 | if (p->radio_input) | |
1101 | priv->radio_input = p->radio_input; | |
1102 | ||
1103 | return 0; | |
1104 | } | |
1105 | ||
1106 | ||
aacb9d31 ST |
1107 | static const struct dvb_tuner_ops xc5000_tuner_ops = { |
1108 | .info = { | |
1109 | .name = "Xceive XC5000", | |
1110 | .frequency_min = 1000000, | |
1111 | .frequency_max = 1023000000, | |
1112 | .frequency_step = 50000, | |
1113 | }, | |
1114 | ||
27c685a4 ST |
1115 | .release = xc5000_release, |
1116 | .init = xc5000_init, | |
1117 | .sleep = xc5000_sleep, | |
aacb9d31 | 1118 | |
724dcbfa | 1119 | .set_config = xc5000_set_config, |
27c685a4 ST |
1120 | .set_params = xc5000_set_params, |
1121 | .set_analog_params = xc5000_set_analog_params, | |
1122 | .get_frequency = xc5000_get_frequency, | |
35621030 | 1123 | .get_if_frequency = xc5000_get_if_frequency, |
27c685a4 ST |
1124 | .get_bandwidth = xc5000_get_bandwidth, |
1125 | .get_status = xc5000_get_status | |
aacb9d31 ST |
1126 | }; |
1127 | ||
48723543 MK |
1128 | struct dvb_frontend *xc5000_attach(struct dvb_frontend *fe, |
1129 | struct i2c_adapter *i2c, | |
2e4e98e7 | 1130 | const struct xc5000_config *cfg) |
aacb9d31 ST |
1131 | { |
1132 | struct xc5000_priv *priv = NULL; | |
89fd2854 | 1133 | int instance; |
aacb9d31 ST |
1134 | u16 id = 0; |
1135 | ||
89fd2854 MK |
1136 | dprintk(1, "%s(%d-%04x)\n", __func__, |
1137 | i2c ? i2c_adapter_id(i2c) : -1, | |
1138 | cfg ? cfg->i2c_address : -1); | |
aacb9d31 | 1139 | |
89fd2854 | 1140 | mutex_lock(&xc5000_list_mutex); |
aacb9d31 | 1141 | |
89fd2854 MK |
1142 | instance = hybrid_tuner_request_state(struct xc5000_priv, priv, |
1143 | hybrid_tuner_instance_list, | |
1144 | i2c, cfg->i2c_address, "xc5000"); | |
1145 | switch (instance) { | |
1146 | case 0: | |
1147 | goto fail; | |
1148 | break; | |
1149 | case 1: | |
1150 | /* new tuner instance */ | |
c6f56e7d | 1151 | priv->bandwidth = 6000000; |
89fd2854 MK |
1152 | fe->tuner_priv = priv; |
1153 | break; | |
1154 | default: | |
1155 | /* existing tuner instance */ | |
1156 | fe->tuner_priv = priv; | |
1157 | break; | |
1158 | } | |
aacb9d31 | 1159 | |
ea227863 DH |
1160 | if (priv->if_khz == 0) { |
1161 | /* If the IF hasn't been set yet, use the value provided by | |
1162 | the caller (occurs in hybrid devices where the analog | |
1163 | call to xc5000_attach occurs before the digital side) */ | |
1164 | priv->if_khz = cfg->if_khz; | |
1165 | } | |
1166 | ||
496e9057 DH |
1167 | if (priv->radio_input == 0) |
1168 | priv->radio_input = cfg->radio_input; | |
1169 | ||
6fab81df | 1170 | /* don't override chip id if it's already been set |
76efb0ba | 1171 | unless explicitly specified */ |
6fab81df MK |
1172 | if ((priv->chip_id == 0) || (cfg->chip_id)) |
1173 | /* use default chip id if none specified, set to 0 so | |
1174 | it can be overridden if this is a hybrid driver */ | |
1175 | priv->chip_id = (cfg->chip_id) ? cfg->chip_id : 0; | |
76efb0ba | 1176 | |
27c685a4 ST |
1177 | /* Check if firmware has been loaded. It is possible that another |
1178 | instance of the driver has loaded the firmware. | |
1179 | */ | |
7988fc21 | 1180 | if (xc5000_readreg(priv, XREG_PRODUCT_ID, &id) != XC_RESULT_SUCCESS) |
89fd2854 | 1181 | goto fail; |
aacb9d31 | 1182 | |
8f3cd530 | 1183 | switch (id) { |
27c685a4 ST |
1184 | case XC_PRODUCT_ID_FW_LOADED: |
1185 | printk(KERN_INFO | |
1186 | "xc5000: Successfully identified at address 0x%02x\n", | |
1187 | cfg->i2c_address); | |
1188 | printk(KERN_INFO | |
1189 | "xc5000: Firmware has been loaded previously\n"); | |
27c685a4 ST |
1190 | break; |
1191 | case XC_PRODUCT_ID_FW_NOT_LOADED: | |
1192 | printk(KERN_INFO | |
1193 | "xc5000: Successfully identified at address 0x%02x\n", | |
1194 | cfg->i2c_address); | |
1195 | printk(KERN_INFO | |
1196 | "xc5000: Firmware has not been loaded previously\n"); | |
27c685a4 ST |
1197 | break; |
1198 | default: | |
aacb9d31 ST |
1199 | printk(KERN_ERR |
1200 | "xc5000: Device not found at addr 0x%02x (0x%x)\n", | |
1201 | cfg->i2c_address, id); | |
89fd2854 | 1202 | goto fail; |
aacb9d31 ST |
1203 | } |
1204 | ||
89fd2854 MK |
1205 | mutex_unlock(&xc5000_list_mutex); |
1206 | ||
aacb9d31 ST |
1207 | memcpy(&fe->ops.tuner_ops, &xc5000_tuner_ops, |
1208 | sizeof(struct dvb_tuner_ops)); | |
1209 | ||
aacb9d31 | 1210 | return fe; |
89fd2854 MK |
1211 | fail: |
1212 | mutex_unlock(&xc5000_list_mutex); | |
1213 | ||
1214 | xc5000_release(fe); | |
1215 | return NULL; | |
aacb9d31 ST |
1216 | } |
1217 | EXPORT_SYMBOL(xc5000_attach); | |
1218 | ||
1219 | MODULE_AUTHOR("Steven Toth"); | |
e12671cf | 1220 | MODULE_DESCRIPTION("Xceive xc5000 silicon tuner driver"); |
aacb9d31 | 1221 | MODULE_LICENSE("GPL"); |