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-rw-r--r--drivers/media/video/gspca/ov519.c1495
1 files changed, 1313 insertions, 182 deletions
diff --git a/drivers/media/video/gspca/ov519.c b/drivers/media/video/gspca/ov519.c
index a5c190e93799..ad9ec339981d 100644
--- a/drivers/media/video/gspca/ov519.c
+++ b/drivers/media/video/gspca/ov519.c
@@ -2,14 +2,19 @@
2 * OV519 driver 2 * OV519 driver
3 * 3 *
4 * Copyright (C) 2008 Jean-Francois Moine (http://moinejf.free.fr) 4 * Copyright (C) 2008 Jean-Francois Moine (http://moinejf.free.fr)
5 * Copyright (C) 2009 Hans de Goede <hdegoede@redhat.com>
5 * 6 *
6 * This module is adapted from the ov51x-jpeg package, which itself 7 * This module is adapted from the ov51x-jpeg package, which itself
7 * was adapted from the ov511 driver. 8 * was adapted from the ov511 driver.
8 * 9 *
9 * Original copyright for the ov511 driver is: 10 * Original copyright for the ov511 driver is:
10 * 11 *
11 * Copyright (c) 1999-2004 Mark W. McClelland 12 * Copyright (c) 1999-2006 Mark W. McClelland
12 * Support for OV519, OV8610 Copyright (c) 2003 Joerg Heckenbach 13 * Support for OV519, OV8610 Copyright (c) 2003 Joerg Heckenbach
14 * Many improvements by Bret Wallach <bwallac1@san.rr.com>
15 * Color fixes by by Orion Sky Lawlor <olawlor@acm.org> (2/26/2000)
16 * OV7620 fixes by Charl P. Botha <cpbotha@ieee.org>
17 * Changes by Claudio Matsuoka <claudio@conectiva.com>
13 * 18 *
14 * ov51x-jpeg original copyright is: 19 * ov51x-jpeg original copyright is:
15 * 20 *
@@ -58,6 +63,8 @@ struct sd {
58#define BRIDGE_OV518 2 63#define BRIDGE_OV518 2
59#define BRIDGE_OV518PLUS 3 64#define BRIDGE_OV518PLUS 3
60#define BRIDGE_OV519 4 65#define BRIDGE_OV519 4
66#define BRIDGE_OVFX2 5
67#define BRIDGE_W9968CF 6
61#define BRIDGE_MASK 7 68#define BRIDGE_MASK 7
62 69
63 char invert_led; 70 char invert_led;
@@ -73,6 +80,10 @@ struct sd {
73 __u8 vflip; 80 __u8 vflip;
74 __u8 autobrightness; 81 __u8 autobrightness;
75 __u8 freq; 82 __u8 freq;
83 __u8 quality;
84#define QUALITY_MIN 50
85#define QUALITY_MAX 70
86#define QUALITY_DEF 50
76 87
77 __u8 stopped; /* Streaming is temporarily paused */ 88 __u8 stopped; /* Streaming is temporarily paused */
78 89
@@ -81,17 +92,31 @@ struct sd {
81 92
82 char sensor; /* Type of image sensor chip (SEN_*) */ 93 char sensor; /* Type of image sensor chip (SEN_*) */
83#define SEN_UNKNOWN 0 94#define SEN_UNKNOWN 0
84#define SEN_OV6620 1 95#define SEN_OV2610 1
85#define SEN_OV6630 2 96#define SEN_OV3610 2
86#define SEN_OV66308AF 3 97#define SEN_OV6620 3
87#define SEN_OV7610 4 98#define SEN_OV6630 4
88#define SEN_OV7620 5 99#define SEN_OV66308AF 5
89#define SEN_OV7640 6 100#define SEN_OV7610 6
90#define SEN_OV7670 7 101#define SEN_OV7620 7
91#define SEN_OV76BE 8 102#define SEN_OV7640 8
92#define SEN_OV8610 9 103#define SEN_OV7670 9
104#define SEN_OV76BE 10
105#define SEN_OV8610 11
106
107 u8 sensor_addr;
108 int sensor_width;
109 int sensor_height;
110 int sensor_reg_cache[256];
111
112 u8 *jpeg_hdr;
93}; 113};
94 114
115/* Note this is a bit of a hack, but the w9968cf driver needs the code for all
116 the ov sensors which is already present here. When we have the time we
117 really should move the sensor drivers to v4l2 sub drivers. */
118#include "w996Xcf.c"
119
95/* V4L2 controls supported by the driver */ 120/* V4L2 controls supported by the driver */
96static int sd_setbrightness(struct gspca_dev *gspca_dev, __s32 val); 121static int sd_setbrightness(struct gspca_dev *gspca_dev, __s32 val);
97static int sd_getbrightness(struct gspca_dev *gspca_dev, __s32 *val); 122static int sd_getbrightness(struct gspca_dev *gspca_dev, __s32 *val);
@@ -345,6 +370,75 @@ static const struct v4l2_pix_format ov511_sif_mode[] = {
345 .priv = 0}, 370 .priv = 0},
346}; 371};
347 372
373static const struct v4l2_pix_format ovfx2_vga_mode[] = {
374 {320, 240, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
375 .bytesperline = 320,
376 .sizeimage = 320 * 240,
377 .colorspace = V4L2_COLORSPACE_SRGB,
378 .priv = 1},
379 {640, 480, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
380 .bytesperline = 640,
381 .sizeimage = 640 * 480,
382 .colorspace = V4L2_COLORSPACE_SRGB,
383 .priv = 0},
384};
385static const struct v4l2_pix_format ovfx2_cif_mode[] = {
386 {160, 120, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
387 .bytesperline = 160,
388 .sizeimage = 160 * 120,
389 .colorspace = V4L2_COLORSPACE_SRGB,
390 .priv = 3},
391 {176, 144, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
392 .bytesperline = 176,
393 .sizeimage = 176 * 144,
394 .colorspace = V4L2_COLORSPACE_SRGB,
395 .priv = 1},
396 {320, 240, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
397 .bytesperline = 320,
398 .sizeimage = 320 * 240,
399 .colorspace = V4L2_COLORSPACE_SRGB,
400 .priv = 2},
401 {352, 288, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
402 .bytesperline = 352,
403 .sizeimage = 352 * 288,
404 .colorspace = V4L2_COLORSPACE_SRGB,
405 .priv = 0},
406};
407static const struct v4l2_pix_format ovfx2_ov2610_mode[] = {
408 {1600, 1200, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
409 .bytesperline = 1600,
410 .sizeimage = 1600 * 1200,
411 .colorspace = V4L2_COLORSPACE_SRGB},
412};
413static const struct v4l2_pix_format ovfx2_ov3610_mode[] = {
414 {640, 480, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
415 .bytesperline = 640,
416 .sizeimage = 640 * 480,
417 .colorspace = V4L2_COLORSPACE_SRGB,
418 .priv = 1},
419 {800, 600, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
420 .bytesperline = 800,
421 .sizeimage = 800 * 600,
422 .colorspace = V4L2_COLORSPACE_SRGB,
423 .priv = 1},
424 {1024, 768, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
425 .bytesperline = 1024,
426 .sizeimage = 1024 * 768,
427 .colorspace = V4L2_COLORSPACE_SRGB,
428 .priv = 1},
429 {1600, 1200, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
430 .bytesperline = 1600,
431 .sizeimage = 1600 * 1200,
432 .colorspace = V4L2_COLORSPACE_SRGB,
433 .priv = 0},
434 {2048, 1536, V4L2_PIX_FMT_SBGGR8, V4L2_FIELD_NONE,
435 .bytesperline = 2048,
436 .sizeimage = 2048 * 1536,
437 .colorspace = V4L2_COLORSPACE_SRGB,
438 .priv = 0},
439};
440
441
348/* Registers common to OV511 / OV518 */ 442/* Registers common to OV511 / OV518 */
349#define R51x_FIFO_PSIZE 0x30 /* 2 bytes wide w/ OV518(+) */ 443#define R51x_FIFO_PSIZE 0x30 /* 2 bytes wide w/ OV518(+) */
350#define R51x_SYS_RESET 0x50 444#define R51x_SYS_RESET 0x50
@@ -406,6 +500,30 @@ static const struct v4l2_pix_format ov511_sif_mode[] = {
406 500
407#define OV511_ENDPOINT_ADDRESS 1 /* Isoc endpoint number */ 501#define OV511_ENDPOINT_ADDRESS 1 /* Isoc endpoint number */
408 502
503/*
504 * The FX2 chip does not give us a zero length read at end of frame.
505 * It does, however, give a short read at the end of a frame, if
506 * neccessary, rather than run two frames together.
507 *
508 * By choosing the right bulk transfer size, we are guaranteed to always
509 * get a short read for the last read of each frame. Frame sizes are
510 * always a composite number (width * height, or a multiple) so if we
511 * choose a prime number, we are guaranteed that the last read of a
512 * frame will be short.
513 *
514 * But it isn't that easy: the 2.6 kernel requires a multiple of 4KB,
515 * otherwise EOVERFLOW "babbling" errors occur. I have not been able
516 * to figure out why. [PMiller]
517 *
518 * The constant (13 * 4096) is the largest "prime enough" number less than 64KB.
519 *
520 * It isn't enough to know the number of bytes per frame, in case we
521 * have data dropouts or buffer overruns (even though the FX2 double
522 * buffers, there are some pretty strict real time constraints for
523 * isochronous transfer for larger frame sizes).
524 */
525#define OVFX2_BULK_SIZE (13 * 4096)
526
409/* I2C registers */ 527/* I2C registers */
410#define R51x_I2C_W_SID 0x41 528#define R51x_I2C_W_SID 0x41
411#define R51x_I2C_SADDR_3 0x42 529#define R51x_I2C_SADDR_3 0x42
@@ -413,9 +531,11 @@ static const struct v4l2_pix_format ov511_sif_mode[] = {
413#define R51x_I2C_R_SID 0x44 531#define R51x_I2C_R_SID 0x44
414#define R51x_I2C_DATA 0x45 532#define R51x_I2C_DATA 0x45
415#define R518_I2C_CTL 0x47 /* OV518(+) only */ 533#define R518_I2C_CTL 0x47 /* OV518(+) only */
534#define OVFX2_I2C_ADDR 0x00
416 535
417/* I2C ADDRESSES */ 536/* I2C ADDRESSES */
418#define OV7xx0_SID 0x42 537#define OV7xx0_SID 0x42
538#define OV_HIRES_SID 0x60 /* OV9xxx / OV2xxx / OV3xxx */
419#define OV8xx0_SID 0xa0 539#define OV8xx0_SID 0xa0
420#define OV6xx0_SID 0xc0 540#define OV6xx0_SID 0xc0
421 541
@@ -508,6 +628,696 @@ struct ov_i2c_regvals {
508 __u8 val; 628 __u8 val;
509}; 629};
510 630
631/* Settings for OV2610 camera chip */
632static const struct ov_i2c_regvals norm_2610[] =
633{
634 { 0x12, 0x80 }, /* reset */
635};
636
637static const struct ov_i2c_regvals norm_3620b[] =
638{
639 /*
640 * From the datasheet: "Note that after writing to register COMH
641 * (0x12) to change the sensor mode, registers related to the
642 * sensor’s cropping window will be reset back to their default
643 * values."
644 *
645 * "wait 4096 external clock ... to make sure the sensor is
646 * stable and ready to access registers" i.e. 160us at 24MHz
647 */
648
649 { 0x12, 0x80 }, /* COMH reset */
650 { 0x12, 0x00 }, /* QXGA, master */
651
652 /*
653 * 11 CLKRC "Clock Rate Control"
654 * [7] internal frequency doublers: on
655 * [6] video port mode: master
656 * [5:0] clock divider: 1
657 */
658 { 0x11, 0x80 },
659
660 /*
661 * 13 COMI "Common Control I"
662 * = 192 (0xC0) 11000000
663 * COMI[7] "AEC speed selection"
664 * = 1 (0x01) 1....... "Faster AEC correction"
665 * COMI[6] "AEC speed step selection"
666 * = 1 (0x01) .1...... "Big steps, fast"
667 * COMI[5] "Banding filter on off"
668 * = 0 (0x00) ..0..... "Off"
669 * COMI[4] "Banding filter option"
670 * = 0 (0x00) ...0.... "Main clock is 48 MHz and
671 * the PLL is ON"
672 * COMI[3] "Reserved"
673 * = 0 (0x00) ....0...
674 * COMI[2] "AGC auto manual control selection"
675 * = 0 (0x00) .....0.. "Manual"
676 * COMI[1] "AWB auto manual control selection"
677 * = 0 (0x00) ......0. "Manual"
678 * COMI[0] "Exposure control"
679 * = 0 (0x00) .......0 "Manual"
680 */
681 { 0x13, 0xC0 },
682
683 /*
684 * 09 COMC "Common Control C"
685 * = 8 (0x08) 00001000
686 * COMC[7:5] "Reserved"
687 * = 0 (0x00) 000.....
688 * COMC[4] "Sleep Mode Enable"
689 * = 0 (0x00) ...0.... "Normal mode"
690 * COMC[3:2] "Sensor sampling reset timing selection"
691 * = 2 (0x02) ....10.. "Longer reset time"
692 * COMC[1:0] "Output drive current select"
693 * = 0 (0x00) ......00 "Weakest"
694 */
695 { 0x09, 0x08 },
696
697 /*
698 * 0C COMD "Common Control D"
699 * = 8 (0x08) 00001000
700 * COMD[7] "Reserved"
701 * = 0 (0x00) 0.......
702 * COMD[6] "Swap MSB and LSB at the output port"
703 * = 0 (0x00) .0...... "False"
704 * COMD[5:3] "Reserved"
705 * = 1 (0x01) ..001...
706 * COMD[2] "Output Average On Off"
707 * = 0 (0x00) .....0.. "Output Normal"
708 * COMD[1] "Sensor precharge voltage selection"
709 * = 0 (0x00) ......0. "Selects internal
710 * reference precharge
711 * voltage"
712 * COMD[0] "Snapshot option"
713 * = 0 (0x00) .......0 "Enable live video output
714 * after snapshot sequence"
715 */
716 { 0x0c, 0x08 },
717
718 /*
719 * 0D COME "Common Control E"
720 * = 161 (0xA1) 10100001
721 * COME[7] "Output average option"
722 * = 1 (0x01) 1....... "Output average of 4 pixels"
723 * COME[6] "Anti-blooming control"
724 * = 0 (0x00) .0...... "Off"
725 * COME[5:3] "Reserved"
726 * = 4 (0x04) ..100...
727 * COME[2] "Clock output power down pin status"
728 * = 0 (0x00) .....0.. "Tri-state data output pin
729 * on power down"
730 * COME[1] "Data output pin status selection at power down"
731 * = 0 (0x00) ......0. "Tri-state VSYNC, PCLK,
732 * HREF, and CHSYNC pins on
733 * power down"
734 * COME[0] "Auto zero circuit select"
735 * = 1 (0x01) .......1 "On"
736 */
737 { 0x0d, 0xA1 },
738
739 /*
740 * 0E COMF "Common Control F"
741 * = 112 (0x70) 01110000
742 * COMF[7] "System clock selection"
743 * = 0 (0x00) 0....... "Use 24 MHz system clock"
744 * COMF[6:4] "Reserved"
745 * = 7 (0x07) .111....
746 * COMF[3] "Manual auto negative offset canceling selection"
747 * = 0 (0x00) ....0... "Auto detect negative
748 * offset and cancel it"
749 * COMF[2:0] "Reserved"
750 * = 0 (0x00) .....000
751 */
752 { 0x0e, 0x70 },
753
754 /*
755 * 0F COMG "Common Control G"
756 * = 66 (0x42) 01000010
757 * COMG[7] "Optical black output selection"
758 * = 0 (0x00) 0....... "Disable"
759 * COMG[6] "Black level calibrate selection"
760 * = 1 (0x01) .1...... "Use optical black pixels
761 * to calibrate"
762 * COMG[5:4] "Reserved"
763 * = 0 (0x00) ..00....
764 * COMG[3] "Channel offset adjustment"
765 * = 0 (0x00) ....0... "Disable offset adjustment"
766 * COMG[2] "ADC black level calibration option"
767 * = 0 (0x00) .....0.. "Use B/G line and G/R
768 * line to calibrate each
769 * channel's black level"
770 * COMG[1] "Reserved"
771 * = 1 (0x01) ......1.
772 * COMG[0] "ADC black level calibration enable"
773 * = 0 (0x00) .......0 "Disable"
774 */
775 { 0x0f, 0x42 },
776
777 /*
778 * 14 COMJ "Common Control J"
779 * = 198 (0xC6) 11000110
780 * COMJ[7:6] "AGC gain ceiling"
781 * = 3 (0x03) 11...... "8x"
782 * COMJ[5:4] "Reserved"
783 * = 0 (0x00) ..00....
784 * COMJ[3] "Auto banding filter"
785 * = 0 (0x00) ....0... "Banding filter is always
786 * on off depending on
787 * COMI[5] setting"
788 * COMJ[2] "VSYNC drop option"
789 * = 1 (0x01) .....1.. "SYNC is dropped if frame
790 * data is dropped"
791 * COMJ[1] "Frame data drop"
792 * = 1 (0x01) ......1. "Drop frame data if
793 * exposure is not within
794 * tolerance. In AEC mode,
795 * data is normally dropped
796 * when data is out of
797 * range."
798 * COMJ[0] "Reserved"
799 * = 0 (0x00) .......0
800 */
801 { 0x14, 0xC6 },
802
803 /*
804 * 15 COMK "Common Control K"
805 * = 2 (0x02) 00000010
806 * COMK[7] "CHSYNC pin output swap"
807 * = 0 (0x00) 0....... "CHSYNC"
808 * COMK[6] "HREF pin output swap"
809 * = 0 (0x00) .0...... "HREF"
810 * COMK[5] "PCLK output selection"
811 * = 0 (0x00) ..0..... "PCLK always output"
812 * COMK[4] "PCLK edge selection"
813 * = 0 (0x00) ...0.... "Data valid on falling edge"
814 * COMK[3] "HREF output polarity"
815 * = 0 (0x00) ....0... "positive"
816 * COMK[2] "Reserved"
817 * = 0 (0x00) .....0..
818 * COMK[1] "VSYNC polarity"
819 * = 1 (0x01) ......1. "negative"
820 * COMK[0] "HSYNC polarity"
821 * = 0 (0x00) .......0 "positive"
822 */
823 { 0x15, 0x02 },
824
825 /*
826 * 33 CHLF "Current Control"
827 * = 9 (0x09) 00001001
828 * CHLF[7:6] "Sensor current control"
829 * = 0 (0x00) 00......
830 * CHLF[5] "Sensor current range control"
831 * = 0 (0x00) ..0..... "normal range"
832 * CHLF[4] "Sensor current"
833 * = 0 (0x00) ...0.... "normal current"
834 * CHLF[3] "Sensor buffer current control"
835 * = 1 (0x01) ....1... "half current"
836 * CHLF[2] "Column buffer current control"
837 * = 0 (0x00) .....0.. "normal current"
838 * CHLF[1] "Analog DSP current control"
839 * = 0 (0x00) ......0. "normal current"
840 * CHLF[1] "ADC current control"
841 * = 0 (0x00) ......0. "normal current"
842 */
843 { 0x33, 0x09 },
844
845 /*
846 * 34 VBLM "Blooming Control"
847 * = 80 (0x50) 01010000
848 * VBLM[7] "Hard soft reset switch"
849 * = 0 (0x00) 0....... "Hard reset"
850 * VBLM[6:4] "Blooming voltage selection"
851 * = 5 (0x05) .101....
852 * VBLM[3:0] "Sensor current control"
853 * = 0 (0x00) ....0000
854 */
855 { 0x34, 0x50 },
856
857 /*
858 * 36 VCHG "Sensor Precharge Voltage Control"
859 * = 0 (0x00) 00000000
860 * VCHG[7] "Reserved"
861 * = 0 (0x00) 0.......
862 * VCHG[6:4] "Sensor precharge voltage control"
863 * = 0 (0x00) .000....
864 * VCHG[3:0] "Sensor array common reference"
865 * = 0 (0x00) ....0000
866 */
867 { 0x36, 0x00 },
868
869 /*
870 * 37 ADC "ADC Reference Control"
871 * = 4 (0x04) 00000100
872 * ADC[7:4] "Reserved"
873 * = 0 (0x00) 0000....
874 * ADC[3] "ADC input signal range"
875 * = 0 (0x00) ....0... "Input signal 1.0x"
876 * ADC[2:0] "ADC range control"
877 * = 4 (0x04) .....100
878 */
879 { 0x37, 0x04 },
880
881 /*
882 * 38 ACOM "Analog Common Ground"
883 * = 82 (0x52) 01010010
884 * ACOM[7] "Analog gain control"
885 * = 0 (0x00) 0....... "Gain 1x"
886 * ACOM[6] "Analog black level calibration"
887 * = 1 (0x01) .1...... "On"
888 * ACOM[5:0] "Reserved"
889 * = 18 (0x12) ..010010
890 */
891 { 0x38, 0x52 },
892
893 /*
894 * 3A FREFA "Internal Reference Adjustment"
895 * = 0 (0x00) 00000000
896 * FREFA[7:0] "Range"
897 * = 0 (0x00) 00000000
898 */
899 { 0x3a, 0x00 },
900
901 /*
902 * 3C FVOPT "Internal Reference Adjustment"
903 * = 31 (0x1F) 00011111
904 * FVOPT[7:0] "Range"
905 * = 31 (0x1F) 00011111
906 */
907 { 0x3c, 0x1F },
908
909 /*
910 * 44 Undocumented = 0 (0x00) 00000000
911 * 44[7:0] "It's a secret"
912 * = 0 (0x00) 00000000
913 */
914 { 0x44, 0x00 },
915
916 /*
917 * 40 Undocumented = 0 (0x00) 00000000
918 * 40[7:0] "It's a secret"
919 * = 0 (0x00) 00000000
920 */
921 { 0x40, 0x00 },
922
923 /*
924 * 41 Undocumented = 0 (0x00) 00000000
925 * 41[7:0] "It's a secret"
926 * = 0 (0x00) 00000000
927 */
928 { 0x41, 0x00 },
929
930 /*
931 * 42 Undocumented = 0 (0x00) 00000000
932 * 42[7:0] "It's a secret"
933 * = 0 (0x00) 00000000
934 */
935 { 0x42, 0x00 },
936
937 /*
938 * 43 Undocumented = 0 (0x00) 00000000
939 * 43[7:0] "It's a secret"
940 * = 0 (0x00) 00000000
941 */
942 { 0x43, 0x00 },
943
944 /*
945 * 45 Undocumented = 128 (0x80) 10000000
946 * 45[7:0] "It's a secret"
947 * = 128 (0x80) 10000000
948 */
949 { 0x45, 0x80 },
950
951 /*
952 * 48 Undocumented = 192 (0xC0) 11000000
953 * 48[7:0] "It's a secret"
954 * = 192 (0xC0) 11000000
955 */
956 { 0x48, 0xC0 },
957
958 /*
959 * 49 Undocumented = 25 (0x19) 00011001
960 * 49[7:0] "It's a secret"
961 * = 25 (0x19) 00011001
962 */
963 { 0x49, 0x19 },
964
965 /*
966 * 4B Undocumented = 128 (0x80) 10000000
967 * 4B[7:0] "It's a secret"
968 * = 128 (0x80) 10000000
969 */
970 { 0x4B, 0x80 },
971
972 /*
973 * 4D Undocumented = 196 (0xC4) 11000100
974 * 4D[7:0] "It's a secret"
975 * = 196 (0xC4) 11000100
976 */
977 { 0x4D, 0xC4 },
978
979 /*
980 * 35 VREF "Reference Voltage Control"
981 * = 76 (0x4C) 01001100
982 * VREF[7:5] "Column high reference control"
983 * = 2 (0x02) 010..... "higher voltage"
984 * VREF[4:2] "Column low reference control"
985 * = 3 (0x03) ...011.. "Highest voltage"
986 * VREF[1:0] "Reserved"
987 * = 0 (0x00) ......00
988 */
989 { 0x35, 0x4C },
990
991 /*
992 * 3D Undocumented = 0 (0x00) 00000000
993 * 3D[7:0] "It's a secret"
994 * = 0 (0x00) 00000000
995 */
996 { 0x3D, 0x00 },
997
998 /*
999 * 3E Undocumented = 0 (0x00) 00000000
1000 * 3E[7:0] "It's a secret"
1001 * = 0 (0x00) 00000000
1002 */
1003 { 0x3E, 0x00 },
1004
1005 /*
1006 * 3B FREFB "Internal Reference Adjustment"
1007 * = 24 (0x18) 00011000
1008 * FREFB[7:0] "Range"
1009 * = 24 (0x18) 00011000
1010 */
1011 { 0x3b, 0x18 },
1012
1013 /*
1014 * 33 CHLF "Current Control"
1015 * = 25 (0x19) 00011001
1016 * CHLF[7:6] "Sensor current control"
1017 * = 0 (0x00) 00......
1018 * CHLF[5] "Sensor current range control"
1019 * = 0 (0x00) ..0..... "normal range"
1020 * CHLF[4] "Sensor current"
1021 * = 1 (0x01) ...1.... "double current"
1022 * CHLF[3] "Sensor buffer current control"
1023 * = 1 (0x01) ....1... "half current"
1024 * CHLF[2] "Column buffer current control"
1025 * = 0 (0x00) .....0.. "normal current"
1026 * CHLF[1] "Analog DSP current control"
1027 * = 0 (0x00) ......0. "normal current"
1028 * CHLF[1] "ADC current control"
1029 * = 0 (0x00) ......0. "normal current"
1030 */
1031 { 0x33, 0x19 },
1032
1033 /*
1034 * 34 VBLM "Blooming Control"
1035 * = 90 (0x5A) 01011010
1036 * VBLM[7] "Hard soft reset switch"
1037 * = 0 (0x00) 0....... "Hard reset"
1038 * VBLM[6:4] "Blooming voltage selection"
1039 * = 5 (0x05) .101....
1040 * VBLM[3:0] "Sensor current control"
1041 * = 10 (0x0A) ....1010
1042 */
1043 { 0x34, 0x5A },
1044
1045 /*
1046 * 3B FREFB "Internal Reference Adjustment"
1047 * = 0 (0x00) 00000000
1048 * FREFB[7:0] "Range"
1049 * = 0 (0x00) 00000000
1050 */
1051 { 0x3b, 0x00 },
1052
1053 /*
1054 * 33 CHLF "Current Control"
1055 * = 9 (0x09) 00001001
1056 * CHLF[7:6] "Sensor current control"
1057 * = 0 (0x00) 00......
1058 * CHLF[5] "Sensor current range control"
1059 * = 0 (0x00) ..0..... "normal range"
1060 * CHLF[4] "Sensor current"
1061 * = 0 (0x00) ...0.... "normal current"
1062 * CHLF[3] "Sensor buffer current control"
1063 * = 1 (0x01) ....1... "half current"
1064 * CHLF[2] "Column buffer current control"
1065 * = 0 (0x00) .....0.. "normal current"
1066 * CHLF[1] "Analog DSP current control"
1067 * = 0 (0x00) ......0. "normal current"
1068 * CHLF[1] "ADC current control"
1069 * = 0 (0x00) ......0. "normal current"
1070 */
1071 { 0x33, 0x09 },
1072
1073 /*
1074 * 34 VBLM "Blooming Control"
1075 * = 80 (0x50) 01010000
1076 * VBLM[7] "Hard soft reset switch"
1077 * = 0 (0x00) 0....... "Hard reset"
1078 * VBLM[6:4] "Blooming voltage selection"
1079 * = 5 (0x05) .101....
1080 * VBLM[3:0] "Sensor current control"
1081 * = 0 (0x00) ....0000
1082 */
1083 { 0x34, 0x50 },
1084
1085 /*
1086 * 12 COMH "Common Control H"
1087 * = 64 (0x40) 01000000
1088 * COMH[7] "SRST"
1089 * = 0 (0x00) 0....... "No-op"
1090 * COMH[6:4] "Resolution selection"
1091 * = 4 (0x04) .100.... "XGA"
1092 * COMH[3] "Master slave selection"
1093 * = 0 (0x00) ....0... "Master mode"
1094 * COMH[2] "Internal B/R channel option"
1095 * = 0 (0x00) .....0.. "B/R use same channel"
1096 * COMH[1] "Color bar test pattern"
1097 * = 0 (0x00) ......0. "Off"
1098 * COMH[0] "Reserved"
1099 * = 0 (0x00) .......0
1100 */
1101 { 0x12, 0x40 },
1102
1103 /*
1104 * 17 HREFST "Horizontal window start"
1105 * = 31 (0x1F) 00011111
1106 * HREFST[7:0] "Horizontal window start, 8 MSBs"
1107 * = 31 (0x1F) 00011111
1108 */
1109 { 0x17, 0x1F },
1110
1111 /*
1112 * 18 HREFEND "Horizontal window end"
1113 * = 95 (0x5F) 01011111
1114 * HREFEND[7:0] "Horizontal Window End, 8 MSBs"
1115 * = 95 (0x5F) 01011111
1116 */
1117 { 0x18, 0x5F },
1118
1119 /*
1120 * 19 VSTRT "Vertical window start"
1121 * = 0 (0x00) 00000000
1122 * VSTRT[7:0] "Vertical Window Start, 8 MSBs"
1123 * = 0 (0x00) 00000000
1124 */
1125 { 0x19, 0x00 },
1126
1127 /*
1128 * 1A VEND "Vertical window end"
1129 * = 96 (0x60) 01100000
1130 * VEND[7:0] "Vertical Window End, 8 MSBs"
1131 * = 96 (0x60) 01100000
1132 */
1133 { 0x1a, 0x60 },
1134
1135 /*
1136 * 32 COMM "Common Control M"
1137 * = 18 (0x12) 00010010
1138 * COMM[7:6] "Pixel clock divide option"
1139 * = 0 (0x00) 00...... "/1"
1140 * COMM[5:3] "Horizontal window end position, 3 LSBs"
1141 * = 2 (0x02) ..010...
1142 * COMM[2:0] "Horizontal window start position, 3 LSBs"
1143 * = 2 (0x02) .....010
1144 */
1145 { 0x32, 0x12 },
1146
1147 /*
1148 * 03 COMA "Common Control A"
1149 * = 74 (0x4A) 01001010
1150 * COMA[7:4] "AWB Update Threshold"
1151 * = 4 (0x04) 0100....
1152 * COMA[3:2] "Vertical window end line control 2 LSBs"
1153 * = 2 (0x02) ....10..
1154 * COMA[1:0] "Vertical window start line control 2 LSBs"
1155 * = 2 (0x02) ......10
1156 */
1157 { 0x03, 0x4A },
1158
1159 /*
1160 * 11 CLKRC "Clock Rate Control"
1161 * = 128 (0x80) 10000000
1162 * CLKRC[7] "Internal frequency doublers on off seclection"
1163 * = 1 (0x01) 1....... "On"
1164 * CLKRC[6] "Digital video master slave selection"
1165 * = 0 (0x00) .0...... "Master mode, sensor
1166 * provides PCLK"
1167 * CLKRC[5:0] "Clock divider { CLK = PCLK/(1+CLKRC[5:0]) }"
1168 * = 0 (0x00) ..000000
1169 */
1170 { 0x11, 0x80 },
1171
1172 /*
1173 * 12 COMH "Common Control H"
1174 * = 0 (0x00) 00000000
1175 * COMH[7] "SRST"
1176 * = 0 (0x00) 0....... "No-op"
1177 * COMH[6:4] "Resolution selection"
1178 * = 0 (0x00) .000.... "QXGA"
1179 * COMH[3] "Master slave selection"
1180 * = 0 (0x00) ....0... "Master mode"
1181 * COMH[2] "Internal B/R channel option"
1182 * = 0 (0x00) .....0.. "B/R use same channel"
1183 * COMH[1] "Color bar test pattern"
1184 * = 0 (0x00) ......0. "Off"
1185 * COMH[0] "Reserved"
1186 * = 0 (0x00) .......0
1187 */
1188 { 0x12, 0x00 },
1189
1190 /*
1191 * 12 COMH "Common Control H"
1192 * = 64 (0x40) 01000000
1193 * COMH[7] "SRST"
1194 * = 0 (0x00) 0....... "No-op"
1195 * COMH[6:4] "Resolution selection"
1196 * = 4 (0x04) .100.... "XGA"
1197 * COMH[3] "Master slave selection"
1198 * = 0 (0x00) ....0... "Master mode"
1199 * COMH[2] "Internal B/R channel option"
1200 * = 0 (0x00) .....0.. "B/R use same channel"
1201 * COMH[1] "Color bar test pattern"
1202 * = 0 (0x00) ......0. "Off"
1203 * COMH[0] "Reserved"
1204 * = 0 (0x00) .......0
1205 */
1206 { 0x12, 0x40 },
1207
1208 /*
1209 * 17 HREFST "Horizontal window start"
1210 * = 31 (0x1F) 00011111
1211 * HREFST[7:0] "Horizontal window start, 8 MSBs"
1212 * = 31 (0x1F) 00011111
1213 */
1214 { 0x17, 0x1F },
1215
1216 /*
1217 * 18 HREFEND "Horizontal window end"
1218 * = 95 (0x5F) 01011111
1219 * HREFEND[7:0] "Horizontal Window End, 8 MSBs"
1220 * = 95 (0x5F) 01011111
1221 */
1222 { 0x18, 0x5F },
1223
1224 /*
1225 * 19 VSTRT "Vertical window start"
1226 * = 0 (0x00) 00000000
1227 * VSTRT[7:0] "Vertical Window Start, 8 MSBs"
1228 * = 0 (0x00) 00000000
1229 */
1230 { 0x19, 0x00 },
1231
1232 /*
1233 * 1A VEND "Vertical window end"
1234 * = 96 (0x60) 01100000
1235 * VEND[7:0] "Vertical Window End, 8 MSBs"
1236 * = 96 (0x60) 01100000
1237 */
1238 { 0x1a, 0x60 },
1239
1240 /*
1241 * 32 COMM "Common Control M"
1242 * = 18 (0x12) 00010010
1243 * COMM[7:6] "Pixel clock divide option"
1244 * = 0 (0x00) 00...... "/1"
1245 * COMM[5:3] "Horizontal window end position, 3 LSBs"
1246 * = 2 (0x02) ..010...
1247 * COMM[2:0] "Horizontal window start position, 3 LSBs"
1248 * = 2 (0x02) .....010
1249 */
1250 { 0x32, 0x12 },
1251
1252 /*
1253 * 03 COMA "Common Control A"
1254 * = 74 (0x4A) 01001010
1255 * COMA[7:4] "AWB Update Threshold"
1256 * = 4 (0x04) 0100....
1257 * COMA[3:2] "Vertical window end line control 2 LSBs"
1258 * = 2 (0x02) ....10..
1259 * COMA[1:0] "Vertical window start line control 2 LSBs"
1260 * = 2 (0x02) ......10
1261 */
1262 { 0x03, 0x4A },
1263
1264 /*
1265 * 02 RED "Red Gain Control"
1266 * = 175 (0xAF) 10101111
1267 * RED[7] "Action"
1268 * = 1 (0x01) 1....... "gain = 1/(1+bitrev([6:0]))"
1269 * RED[6:0] "Value"
1270 * = 47 (0x2F) .0101111
1271 */
1272 { 0x02, 0xAF },
1273
1274 /*
1275 * 2D ADDVSL "VSYNC Pulse Width"
1276 * = 210 (0xD2) 11010010
1277 * ADDVSL[7:0] "VSYNC pulse width, LSB"
1278 * = 210 (0xD2) 11010010
1279 */
1280 { 0x2d, 0xD2 },
1281
1282 /*
1283 * 00 GAIN = 24 (0x18) 00011000
1284 * GAIN[7:6] "Reserved"
1285 * = 0 (0x00) 00......
1286 * GAIN[5] "Double"
1287 * = 0 (0x00) ..0..... "False"
1288 * GAIN[4] "Double"
1289 * = 1 (0x01) ...1.... "True"
1290 * GAIN[3:0] "Range"
1291 * = 8 (0x08) ....1000
1292 */
1293 { 0x00, 0x18 },
1294
1295 /*
1296 * 01 BLUE "Blue Gain Control"
1297 * = 240 (0xF0) 11110000
1298 * BLUE[7] "Action"
1299 * = 1 (0x01) 1....... "gain = 1/(1+bitrev([6:0]))"
1300 * BLUE[6:0] "Value"
1301 * = 112 (0x70) .1110000
1302 */
1303 { 0x01, 0xF0 },
1304
1305 /*
1306 * 10 AEC "Automatic Exposure Control"
1307 * = 10 (0x0A) 00001010
1308 * AEC[7:0] "Automatic Exposure Control, 8 MSBs"
1309 * = 10 (0x0A) 00001010
1310 */
1311 { 0x10, 0x0A },
1312
1313 { 0xE1, 0x67 },
1314 { 0xE3, 0x03 },
1315 { 0xE4, 0x26 },
1316 { 0xE5, 0x3E },
1317 { 0xF8, 0x01 },
1318 { 0xFF, 0x01 },
1319};
1320
511static const struct ov_i2c_regvals norm_6x20[] = { 1321static const struct ov_i2c_regvals norm_6x20[] = {
512 { 0x12, 0x80 }, /* reset */ 1322 { 0x12, 0x80 }, /* reset */
513 { 0x11, 0x01 }, 1323 { 0x11, 0x01 },
@@ -678,6 +1488,7 @@ static const struct ov_i2c_regvals norm_7610[] = {
678}; 1488};
679 1489
680static const struct ov_i2c_regvals norm_7620[] = { 1490static const struct ov_i2c_regvals norm_7620[] = {
1491 { 0x12, 0x80 }, /* reset */
681 { 0x00, 0x00 }, /* gain */ 1492 { 0x00, 0x00 }, /* gain */
682 { 0x01, 0x80 }, /* blue gain */ 1493 { 0x01, 0x80 }, /* blue gain */
683 { 0x02, 0x80 }, /* red gain */ 1494 { 0x02, 0x80 }, /* red gain */
@@ -1042,10 +1853,28 @@ static unsigned char ov7670_abs_to_sm(unsigned char v)
1042} 1853}
1043 1854
1044/* Write a OV519 register */ 1855/* Write a OV519 register */
1045static int reg_w(struct sd *sd, __u16 index, __u8 value) 1856static int reg_w(struct sd *sd, __u16 index, __u16 value)
1046{ 1857{
1047 int ret; 1858 int ret, req = 0;
1048 int req = (sd->bridge <= BRIDGE_OV511PLUS) ? 2 : 1; 1859
1860 switch (sd->bridge) {
1861 case BRIDGE_OV511:
1862 case BRIDGE_OV511PLUS:
1863 req = 2;
1864 break;
1865 case BRIDGE_OVFX2:
1866 req = 0x0a;
1867 /* fall through */
1868 case BRIDGE_W9968CF:
1869 ret = usb_control_msg(sd->gspca_dev.dev,
1870 usb_sndctrlpipe(sd->gspca_dev.dev, 0),
1871 req,
1872 USB_DIR_OUT | USB_TYPE_VENDOR | USB_RECIP_DEVICE,
1873 value, index, NULL, 0, 500);
1874 goto leave;
1875 default:
1876 req = 1;
1877 }
1049 1878
1050 sd->gspca_dev.usb_buf[0] = value; 1879 sd->gspca_dev.usb_buf[0] = value;
1051 ret = usb_control_msg(sd->gspca_dev.dev, 1880 ret = usb_control_msg(sd->gspca_dev.dev,
@@ -1054,17 +1883,35 @@ static int reg_w(struct sd *sd, __u16 index, __u8 value)
1054 USB_DIR_OUT | USB_TYPE_VENDOR | USB_RECIP_DEVICE, 1883 USB_DIR_OUT | USB_TYPE_VENDOR | USB_RECIP_DEVICE,
1055 0, index, 1884 0, index,
1056 sd->gspca_dev.usb_buf, 1, 500); 1885 sd->gspca_dev.usb_buf, 1, 500);
1057 if (ret < 0) 1886leave:
1058 PDEBUG(D_ERR, "Write reg [%02x] %02x failed", index, value); 1887 if (ret < 0) {
1059 return ret; 1888 PDEBUG(D_ERR, "Write reg 0x%04x -> [0x%02x] failed",
1889 value, index);
1890 return ret;
1891 }
1892
1893 PDEBUG(D_USBO, "Write reg 0x%04x -> [0x%02x]", value, index);
1894 return 0;
1060} 1895}
1061 1896
1062/* Read from a OV519 register */ 1897/* Read from a OV519 register, note not valid for the w9968cf!! */
1063/* returns: negative is error, pos or zero is data */ 1898/* returns: negative is error, pos or zero is data */
1064static int reg_r(struct sd *sd, __u16 index) 1899static int reg_r(struct sd *sd, __u16 index)
1065{ 1900{
1066 int ret; 1901 int ret;
1067 int req = (sd->bridge <= BRIDGE_OV511PLUS) ? 3 : 1; 1902 int req;
1903
1904 switch (sd->bridge) {
1905 case BRIDGE_OV511:
1906 case BRIDGE_OV511PLUS:
1907 req = 3;
1908 break;
1909 case BRIDGE_OVFX2:
1910 req = 0x0b;
1911 break;
1912 default:
1913 req = 1;
1914 }
1068 1915
1069 ret = usb_control_msg(sd->gspca_dev.dev, 1916 ret = usb_control_msg(sd->gspca_dev.dev,
1070 usb_rcvctrlpipe(sd->gspca_dev.dev, 0), 1917 usb_rcvctrlpipe(sd->gspca_dev.dev, 0),
@@ -1072,10 +1919,12 @@ static int reg_r(struct sd *sd, __u16 index)
1072 USB_DIR_IN | USB_TYPE_VENDOR | USB_RECIP_DEVICE, 1919 USB_DIR_IN | USB_TYPE_VENDOR | USB_RECIP_DEVICE,
1073 0, index, sd->gspca_dev.usb_buf, 1, 500); 1920 0, index, sd->gspca_dev.usb_buf, 1, 500);
1074 1921
1075 if (ret >= 0) 1922 if (ret >= 0) {
1076 ret = sd->gspca_dev.usb_buf[0]; 1923 ret = sd->gspca_dev.usb_buf[0];
1077 else 1924 PDEBUG(D_USBI, "Read reg [0x%02X] -> 0x%04X", index, ret);
1925 } else
1078 PDEBUG(D_ERR, "Read reg [0x%02x] failed", index); 1926 PDEBUG(D_ERR, "Read reg [0x%02x] failed", index);
1927
1079 return ret; 1928 return ret;
1080} 1929}
1081 1930
@@ -1095,6 +1944,7 @@ static int reg_r8(struct sd *sd,
1095 ret = sd->gspca_dev.usb_buf[0]; 1944 ret = sd->gspca_dev.usb_buf[0];
1096 else 1945 else
1097 PDEBUG(D_ERR, "Read reg 8 [0x%02x] failed", index); 1946 PDEBUG(D_ERR, "Read reg 8 [0x%02x] failed", index);
1947
1098 return ret; 1948 return ret;
1099} 1949}
1100 1950
@@ -1140,9 +1990,12 @@ static int ov518_reg_w32(struct sd *sd, __u16 index, u32 value, int n)
1140 USB_DIR_OUT | USB_TYPE_VENDOR | USB_RECIP_DEVICE, 1990 USB_DIR_OUT | USB_TYPE_VENDOR | USB_RECIP_DEVICE,
1141 0, index, 1991 0, index,
1142 sd->gspca_dev.usb_buf, n, 500); 1992 sd->gspca_dev.usb_buf, n, 500);
1143 if (ret < 0) 1993 if (ret < 0) {
1144 PDEBUG(D_ERR, "Write reg32 [%02x] %08x failed", index, value); 1994 PDEBUG(D_ERR, "Write reg32 [%02x] %08x failed", index, value);
1145 return ret; 1995 return ret;
1996 }
1997
1998 return 0;
1146} 1999}
1147 2000
1148static int ov511_i2c_w(struct sd *sd, __u8 reg, __u8 value) 2001static int ov511_i2c_w(struct sd *sd, __u8 reg, __u8 value)
@@ -1324,32 +2177,110 @@ static int ov518_i2c_r(struct sd *sd, __u8 reg)
1324 return value; 2177 return value;
1325} 2178}
1326 2179
2180static int ovfx2_i2c_w(struct sd *sd, __u8 reg, __u8 value)
2181{
2182 int ret;
2183
2184 ret = usb_control_msg(sd->gspca_dev.dev,
2185 usb_sndctrlpipe(sd->gspca_dev.dev, 0),
2186 0x02,
2187 USB_DIR_OUT | USB_TYPE_VENDOR | USB_RECIP_DEVICE,
2188 (__u16)value, (__u16)reg, NULL, 0, 500);
2189
2190 if (ret < 0) {
2191 PDEBUG(D_ERR, "i2c 0x%02x -> [0x%02x] failed", value, reg);
2192 return ret;
2193 }
2194
2195 PDEBUG(D_USBO, "i2c 0x%02x -> [0x%02x]", value, reg);
2196 return 0;
2197}
2198
2199static int ovfx2_i2c_r(struct sd *sd, __u8 reg)
2200{
2201 int ret;
2202
2203 ret = usb_control_msg(sd->gspca_dev.dev,
2204 usb_rcvctrlpipe(sd->gspca_dev.dev, 0),
2205 0x03,
2206 USB_DIR_IN | USB_TYPE_VENDOR | USB_RECIP_DEVICE,
2207 0, (__u16)reg, sd->gspca_dev.usb_buf, 1, 500);
2208
2209 if (ret >= 0) {
2210 ret = sd->gspca_dev.usb_buf[0];
2211 PDEBUG(D_USBI, "i2c [0x%02X] -> 0x%02X", reg, ret);
2212 } else
2213 PDEBUG(D_ERR, "i2c read [0x%02x] failed", reg);
2214
2215 return ret;
2216}
2217
1327static int i2c_w(struct sd *sd, __u8 reg, __u8 value) 2218static int i2c_w(struct sd *sd, __u8 reg, __u8 value)
1328{ 2219{
2220 int ret = -1;
2221
2222 if (sd->sensor_reg_cache[reg] == value)
2223 return 0;
2224
1329 switch (sd->bridge) { 2225 switch (sd->bridge) {
1330 case BRIDGE_OV511: 2226 case BRIDGE_OV511:
1331 case BRIDGE_OV511PLUS: 2227 case BRIDGE_OV511PLUS:
1332 return ov511_i2c_w(sd, reg, value); 2228 ret = ov511_i2c_w(sd, reg, value);
2229 break;
1333 case BRIDGE_OV518: 2230 case BRIDGE_OV518:
1334 case BRIDGE_OV518PLUS: 2231 case BRIDGE_OV518PLUS:
1335 case BRIDGE_OV519: 2232 case BRIDGE_OV519:
1336 return ov518_i2c_w(sd, reg, value); 2233 ret = ov518_i2c_w(sd, reg, value);
2234 break;
2235 case BRIDGE_OVFX2:
2236 ret = ovfx2_i2c_w(sd, reg, value);
2237 break;
2238 case BRIDGE_W9968CF:
2239 ret = w9968cf_i2c_w(sd, reg, value);
2240 break;
1337 } 2241 }
1338 return -1; /* Should never happen */ 2242
2243 if (ret >= 0) {
2244 /* Up on sensor reset empty the register cache */
2245 if (reg == 0x12 && (value & 0x80))
2246 memset(sd->sensor_reg_cache, -1,
2247 sizeof(sd->sensor_reg_cache));
2248 else
2249 sd->sensor_reg_cache[reg] = value;
2250 }
2251
2252 return ret;
1339} 2253}
1340 2254
1341static int i2c_r(struct sd *sd, __u8 reg) 2255static int i2c_r(struct sd *sd, __u8 reg)
1342{ 2256{
2257 int ret = -1;
2258
2259 if (sd->sensor_reg_cache[reg] != -1)
2260 return sd->sensor_reg_cache[reg];
2261
1343 switch (sd->bridge) { 2262 switch (sd->bridge) {
1344 case BRIDGE_OV511: 2263 case BRIDGE_OV511:
1345 case BRIDGE_OV511PLUS: 2264 case BRIDGE_OV511PLUS:
1346 return ov511_i2c_r(sd, reg); 2265 ret = ov511_i2c_r(sd, reg);
2266 break;
1347 case BRIDGE_OV518: 2267 case BRIDGE_OV518:
1348 case BRIDGE_OV518PLUS: 2268 case BRIDGE_OV518PLUS:
1349 case BRIDGE_OV519: 2269 case BRIDGE_OV519:
1350 return ov518_i2c_r(sd, reg); 2270 ret = ov518_i2c_r(sd, reg);
2271 break;
2272 case BRIDGE_OVFX2:
2273 ret = ovfx2_i2c_r(sd, reg);
2274 break;
2275 case BRIDGE_W9968CF:
2276 ret = w9968cf_i2c_r(sd, reg);
2277 break;
1351 } 2278 }
1352 return -1; /* Should never happen */ 2279
2280 if (ret >= 0)
2281 sd->sensor_reg_cache[reg] = ret;
2282
2283 return ret;
1353} 2284}
1354 2285
1355/* Writes bits at positions specified by mask to an I2C reg. Bits that are in 2286/* Writes bits at positions specified by mask to an I2C reg. Bits that are in
@@ -1389,6 +2320,10 @@ static inline int ov51x_stop(struct sd *sd)
1389 return reg_w_mask(sd, R51x_SYS_RESET, 0x3a, 0x3a); 2320 return reg_w_mask(sd, R51x_SYS_RESET, 0x3a, 0x3a);
1390 case BRIDGE_OV519: 2321 case BRIDGE_OV519:
1391 return reg_w(sd, OV519_SYS_RESET1, 0x0f); 2322 return reg_w(sd, OV519_SYS_RESET1, 0x0f);
2323 case BRIDGE_OVFX2:
2324 return reg_w_mask(sd, 0x0f, 0x00, 0x02);
2325 case BRIDGE_W9968CF:
2326 return reg_w(sd, 0x3c, 0x0a05); /* stop USB transfer */
1392 } 2327 }
1393 2328
1394 return 0; 2329 return 0;
@@ -1418,18 +2353,27 @@ static inline int ov51x_restart(struct sd *sd)
1418 return reg_w(sd, R51x_SYS_RESET, 0x00); 2353 return reg_w(sd, R51x_SYS_RESET, 0x00);
1419 case BRIDGE_OV519: 2354 case BRIDGE_OV519:
1420 return reg_w(sd, OV519_SYS_RESET1, 0x00); 2355 return reg_w(sd, OV519_SYS_RESET1, 0x00);
2356 case BRIDGE_OVFX2:
2357 return reg_w_mask(sd, 0x0f, 0x02, 0x02);
2358 case BRIDGE_W9968CF:
2359 return reg_w(sd, 0x3c, 0x8a05); /* USB FIFO enable */
1421 } 2360 }
1422 2361
1423 return 0; 2362 return 0;
1424} 2363}
1425 2364
2365static int ov51x_set_slave_ids(struct sd *sd, __u8 slave);
2366
1426/* This does an initial reset of an OmniVision sensor and ensures that I2C 2367/* This does an initial reset of an OmniVision sensor and ensures that I2C
1427 * is synchronized. Returns <0 on failure. 2368 * is synchronized. Returns <0 on failure.
1428 */ 2369 */
1429static int init_ov_sensor(struct sd *sd) 2370static int init_ov_sensor(struct sd *sd, __u8 slave)
1430{ 2371{
1431 int i; 2372 int i;
1432 2373
2374 if (ov51x_set_slave_ids(sd, slave) < 0)
2375 return -EIO;
2376
1433 /* Reset the sensor */ 2377 /* Reset the sensor */
1434 if (i2c_w(sd, 0x12, 0x80) < 0) 2378 if (i2c_w(sd, 0x12, 0x80) < 0)
1435 return -EIO; 2379 return -EIO;
@@ -1466,6 +2410,14 @@ static int ov51x_set_slave_ids(struct sd *sd,
1466{ 2410{
1467 int rc; 2411 int rc;
1468 2412
2413 switch (sd->bridge) {
2414 case BRIDGE_OVFX2:
2415 return reg_w(sd, OVFX2_I2C_ADDR, slave);
2416 case BRIDGE_W9968CF:
2417 sd->sensor_addr = slave;
2418 return 0;
2419 }
2420
1469 rc = reg_w(sd, R51x_I2C_W_SID, slave); 2421 rc = reg_w(sd, R51x_I2C_W_SID, slave);
1470 if (rc < 0) 2422 if (rc < 0)
1471 return rc; 2423 return rc;
@@ -1508,6 +2460,39 @@ static int write_i2c_regvals(struct sd *sd,
1508 * 2460 *
1509 ***************************************************************************/ 2461 ***************************************************************************/
1510 2462
2463/* This initializes the OV2x10 / OV3610 / OV3620 */
2464static int ov_hires_configure(struct sd *sd)
2465{
2466 int high, low;
2467
2468 if (sd->bridge != BRIDGE_OVFX2) {
2469 PDEBUG(D_ERR, "error hires sensors only supported with ovfx2");
2470 return -1;
2471 }
2472
2473 PDEBUG(D_PROBE, "starting ov hires configuration");
2474
2475 /* Detect sensor (sub)type */
2476 high = i2c_r(sd, 0x0a);
2477 low = i2c_r(sd, 0x0b);
2478 /* info("%x, %x", high, low); */
2479 if (high == 0x96 && low == 0x40) {
2480 PDEBUG(D_PROBE, "Sensor is an OV2610");
2481 sd->sensor = SEN_OV2610;
2482 } else if (high == 0x36 && (low & 0x0f) == 0x00) {
2483 PDEBUG(D_PROBE, "Sensor is an OV3610");
2484 sd->sensor = SEN_OV3610;
2485 } else {
2486 PDEBUG(D_ERR, "Error unknown sensor type: 0x%02x%02x",
2487 high, low);
2488 return -1;
2489 }
2490
2491 /* Set sensor-specific vars */
2492 return 0;
2493}
2494
2495
1511/* This initializes the OV8110, OV8610 sensor. The OV8110 uses 2496/* This initializes the OV8110, OV8610 sensor. The OV8110 uses
1512 * the same register settings as the OV8610, since they are very similar. 2497 * the same register settings as the OV8610, since they are very similar.
1513 */ 2498 */
@@ -1966,12 +2951,29 @@ static int ov519_configure(struct sd *sd)
1966 return write_regvals(sd, init_519, ARRAY_SIZE(init_519)); 2951 return write_regvals(sd, init_519, ARRAY_SIZE(init_519));
1967} 2952}
1968 2953
2954static int ovfx2_configure(struct sd *sd)
2955{
2956 static const struct ov_regvals init_fx2[] = {
2957 { 0x00, 0x60 },
2958 { 0x02, 0x01 },
2959 { 0x0f, 0x1d },
2960 { 0xe9, 0x82 },
2961 { 0xea, 0xc7 },
2962 { 0xeb, 0x10 },
2963 { 0xec, 0xf6 },
2964 };
2965
2966 sd->stopped = 1;
2967
2968 return write_regvals(sd, init_fx2, ARRAY_SIZE(init_fx2));
2969}
2970
1969/* this function is called at probe time */ 2971/* this function is called at probe time */
1970static int sd_config(struct gspca_dev *gspca_dev, 2972static int sd_config(struct gspca_dev *gspca_dev,
1971 const struct usb_device_id *id) 2973 const struct usb_device_id *id)
1972{ 2974{
1973 struct sd *sd = (struct sd *) gspca_dev; 2975 struct sd *sd = (struct sd *) gspca_dev;
1974 struct cam *cam; 2976 struct cam *cam = &gspca_dev->cam;
1975 int ret = 0; 2977 int ret = 0;
1976 2978
1977 sd->bridge = id->driver_info & BRIDGE_MASK; 2979 sd->bridge = id->driver_info & BRIDGE_MASK;
@@ -1989,6 +2991,16 @@ static int sd_config(struct gspca_dev *gspca_dev,
1989 case BRIDGE_OV519: 2991 case BRIDGE_OV519:
1990 ret = ov519_configure(sd); 2992 ret = ov519_configure(sd);
1991 break; 2993 break;
2994 case BRIDGE_OVFX2:
2995 ret = ovfx2_configure(sd);
2996 cam->bulk_size = OVFX2_BULK_SIZE;
2997 cam->bulk_nurbs = MAX_NURBS;
2998 cam->bulk = 1;
2999 break;
3000 case BRIDGE_W9968CF:
3001 ret = w9968cf_configure(sd);
3002 cam->reverse_alts = 1;
3003 break;
1992 } 3004 }
1993 3005
1994 if (ret) 3006 if (ret)
@@ -1996,49 +3008,39 @@ static int sd_config(struct gspca_dev *gspca_dev,
1996 3008
1997 ov51x_led_control(sd, 0); /* turn LED off */ 3009 ov51x_led_control(sd, 0); /* turn LED off */
1998 3010
1999 /* Test for 76xx */
2000 if (ov51x_set_slave_ids(sd, OV7xx0_SID) < 0)
2001 goto error;
2002
2003 /* The OV519 must be more aggressive about sensor detection since 3011 /* The OV519 must be more aggressive about sensor detection since
2004 * I2C write will never fail if the sensor is not present. We have 3012 * I2C write will never fail if the sensor is not present. We have
2005 * to try to initialize the sensor to detect its presence */ 3013 * to try to initialize the sensor to detect its presence */
2006 if (init_ov_sensor(sd) >= 0) { 3014
3015 /* Test for 76xx */
3016 if (init_ov_sensor(sd, OV7xx0_SID) >= 0) {
2007 if (ov7xx0_configure(sd) < 0) { 3017 if (ov7xx0_configure(sd) < 0) {
2008 PDEBUG(D_ERR, "Failed to configure OV7xx0"); 3018 PDEBUG(D_ERR, "Failed to configure OV7xx0");
2009 goto error; 3019 goto error;
2010 } 3020 }
2011 } else { 3021 /* Test for 6xx0 */
2012 3022 } else if (init_ov_sensor(sd, OV6xx0_SID) >= 0) {
2013 /* Test for 6xx0 */ 3023 if (ov6xx0_configure(sd) < 0) {
2014 if (ov51x_set_slave_ids(sd, OV6xx0_SID) < 0) 3024 PDEBUG(D_ERR, "Failed to configure OV6xx0");
3025 goto error;
3026 }
3027 /* Test for 8xx0 */
3028 } else if (init_ov_sensor(sd, OV8xx0_SID) >= 0) {
3029 if (ov8xx0_configure(sd) < 0) {
3030 PDEBUG(D_ERR, "Failed to configure OV8xx0");
2015 goto error; 3031 goto error;
2016
2017 if (init_ov_sensor(sd) >= 0) {
2018 if (ov6xx0_configure(sd) < 0) {
2019 PDEBUG(D_ERR, "Failed to configure OV6xx0");
2020 goto error;
2021 }
2022 } else {
2023
2024 /* Test for 8xx0 */
2025 if (ov51x_set_slave_ids(sd, OV8xx0_SID) < 0)
2026 goto error;
2027
2028 if (init_ov_sensor(sd) < 0) {
2029 PDEBUG(D_ERR,
2030 "Can't determine sensor slave IDs");
2031 goto error;
2032 }
2033 if (ov8xx0_configure(sd) < 0) {
2034 PDEBUG(D_ERR,
2035 "Failed to configure OV8xx0 sensor");
2036 goto error;
2037 }
2038 } 3032 }
3033 /* Test for 3xxx / 2xxx */
3034 } else if (init_ov_sensor(sd, OV_HIRES_SID) >= 0) {
3035 if (ov_hires_configure(sd) < 0) {
3036 PDEBUG(D_ERR, "Failed to configure high res OV");
3037 goto error;
3038 }
3039 } else {
3040 PDEBUG(D_ERR, "Can't determine sensor slave IDs");
3041 goto error;
2039 } 3042 }
2040 3043
2041 cam = &gspca_dev->cam;
2042 switch (sd->bridge) { 3044 switch (sd->bridge) {
2043 case BRIDGE_OV511: 3045 case BRIDGE_OV511:
2044 case BRIDGE_OV511PLUS: 3046 case BRIDGE_OV511PLUS:
@@ -2069,6 +3071,31 @@ static int sd_config(struct gspca_dev *gspca_dev,
2069 cam->nmodes = ARRAY_SIZE(ov519_sif_mode); 3071 cam->nmodes = ARRAY_SIZE(ov519_sif_mode);
2070 } 3072 }
2071 break; 3073 break;
3074 case BRIDGE_OVFX2:
3075 if (sd->sensor == SEN_OV2610) {
3076 cam->cam_mode = ovfx2_ov2610_mode;
3077 cam->nmodes = ARRAY_SIZE(ovfx2_ov2610_mode);
3078 } else if (sd->sensor == SEN_OV3610) {
3079 cam->cam_mode = ovfx2_ov3610_mode;
3080 cam->nmodes = ARRAY_SIZE(ovfx2_ov3610_mode);
3081 } else if (!sd->sif) {
3082 cam->cam_mode = ov519_vga_mode;
3083 cam->nmodes = ARRAY_SIZE(ov519_vga_mode);
3084 } else {
3085 cam->cam_mode = ov519_sif_mode;
3086 cam->nmodes = ARRAY_SIZE(ov519_sif_mode);
3087 }
3088 break;
3089 case BRIDGE_W9968CF:
3090 cam->cam_mode = w9968cf_vga_mode;
3091 cam->nmodes = ARRAY_SIZE(w9968cf_vga_mode);
3092 if (sd->sif)
3093 cam->nmodes--;
3094
3095 /* w9968cf needs initialisation once the sensor is known */
3096 if (w9968cf_init(sd) < 0)
3097 goto error;
3098 break;
2072 } 3099 }
2073 sd->brightness = BRIGHTNESS_DEF; 3100 sd->brightness = BRIGHTNESS_DEF;
2074 if (sd->sensor == SEN_OV6630 || sd->sensor == SEN_OV66308AF) 3101 if (sd->sensor == SEN_OV6630 || sd->sensor == SEN_OV66308AF)
@@ -2087,11 +3114,15 @@ static int sd_config(struct gspca_dev *gspca_dev,
2087 gspca_dev->ctrl_dis = (1 << HFLIP_IDX) | (1 << VFLIP_IDX) | 3114 gspca_dev->ctrl_dis = (1 << HFLIP_IDX) | (1 << VFLIP_IDX) |
2088 (1 << OV7670_FREQ_IDX); 3115 (1 << OV7670_FREQ_IDX);
2089 } 3116 }
3117 sd->quality = QUALITY_DEF;
2090 if (sd->sensor == SEN_OV7640 || sd->sensor == SEN_OV7670) 3118 if (sd->sensor == SEN_OV7640 || sd->sensor == SEN_OV7670)
2091 gspca_dev->ctrl_dis |= 1 << AUTOBRIGHT_IDX; 3119 gspca_dev->ctrl_dis |= 1 << AUTOBRIGHT_IDX;
2092 /* OV8610 Frequency filter control should work but needs testing */ 3120 /* OV8610 Frequency filter control should work but needs testing */
2093 if (sd->sensor == SEN_OV8610) 3121 if (sd->sensor == SEN_OV8610)
2094 gspca_dev->ctrl_dis |= 1 << FREQ_IDX; 3122 gspca_dev->ctrl_dis |= 1 << FREQ_IDX;
3123 /* No controls for the OV2610/OV3610 */
3124 if (sd->sensor == SEN_OV2610 || sd->sensor == SEN_OV3610)
3125 gspca_dev->ctrl_dis |= 0xFF;
2095 3126
2096 return 0; 3127 return 0;
2097error: 3128error:
@@ -2106,6 +3137,20 @@ static int sd_init(struct gspca_dev *gspca_dev)
2106 3137
2107 /* initialize the sensor */ 3138 /* initialize the sensor */
2108 switch (sd->sensor) { 3139 switch (sd->sensor) {
3140 case SEN_OV2610:
3141 if (write_i2c_regvals(sd, norm_2610, ARRAY_SIZE(norm_2610)))
3142 return -EIO;
3143 /* Enable autogain, autoexpo, awb, bandfilter */
3144 if (i2c_w_mask(sd, 0x13, 0x27, 0x27) < 0)
3145 return -EIO;
3146 break;
3147 case SEN_OV3610:
3148 if (write_i2c_regvals(sd, norm_3620b, ARRAY_SIZE(norm_3620b)))
3149 return -EIO;
3150 /* Enable autogain, autoexpo, awb, bandfilter */
3151 if (i2c_w_mask(sd, 0x13, 0x27, 0x27) < 0)
3152 return -EIO;
3153 break;
2109 case SEN_OV6620: 3154 case SEN_OV6620:
2110 if (write_i2c_regvals(sd, norm_6x20, ARRAY_SIZE(norm_6x20))) 3155 if (write_i2c_regvals(sd, norm_6x20, ARRAY_SIZE(norm_6x20)))
2111 return -EIO; 3156 return -EIO;
@@ -2548,19 +3593,60 @@ static int ov519_mode_init_regs(struct sd *sd)
2548static int mode_init_ov_sensor_regs(struct sd *sd) 3593static int mode_init_ov_sensor_regs(struct sd *sd)
2549{ 3594{
2550 struct gspca_dev *gspca_dev; 3595 struct gspca_dev *gspca_dev;
2551 int qvga; 3596 int qvga, xstart, xend, ystart, yend;
3597 __u8 v;
2552 3598
2553 gspca_dev = &sd->gspca_dev; 3599 gspca_dev = &sd->gspca_dev;
2554 qvga = gspca_dev->cam.cam_mode[(int) gspca_dev->curr_mode].priv & 1; 3600 qvga = gspca_dev->cam.cam_mode[(int) gspca_dev->curr_mode].priv & 1;
2555 3601
2556 /******** Mode (VGA/QVGA) and sensor specific regs ********/ 3602 /******** Mode (VGA/QVGA) and sensor specific regs ********/
2557 switch (sd->sensor) { 3603 switch (sd->sensor) {
3604 case SEN_OV2610:
3605 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20);
3606 i2c_w_mask(sd, 0x28, qvga ? 0x00 : 0x20, 0x20);
3607 i2c_w(sd, 0x24, qvga ? 0x20 : 0x3a);
3608 i2c_w(sd, 0x25, qvga ? 0x30 : 0x60);
3609 i2c_w_mask(sd, 0x2d, qvga ? 0x40 : 0x00, 0x40);
3610 i2c_w_mask(sd, 0x67, qvga ? 0xf0 : 0x90, 0xf0);
3611 i2c_w_mask(sd, 0x74, qvga ? 0x20 : 0x00, 0x20);
3612 return 0;
3613 case SEN_OV3610:
3614 if (qvga) {
3615 xstart = (1040 - gspca_dev->width) / 2 + (0x1f << 4);
3616 ystart = (776 - gspca_dev->height) / 2;
3617 } else {
3618 xstart = (2076 - gspca_dev->width) / 2 + (0x10 << 4);
3619 ystart = (1544 - gspca_dev->height) / 2;
3620 }
3621 xend = xstart + gspca_dev->width;
3622 yend = ystart + gspca_dev->height;
3623 /* Writing to the COMH register resets the other windowing regs
3624 to their default values, so we must do this first. */
3625 i2c_w_mask(sd, 0x12, qvga ? 0x40 : 0x00, 0xf0);
3626 i2c_w_mask(sd, 0x32,
3627 (((xend >> 1) & 7) << 3) | ((xstart >> 1) & 7),
3628 0x3f);
3629 i2c_w_mask(sd, 0x03,
3630 (((yend >> 1) & 3) << 2) | ((ystart >> 1) & 3),
3631 0x0f);
3632 i2c_w(sd, 0x17, xstart >> 4);
3633 i2c_w(sd, 0x18, xend >> 4);
3634 i2c_w(sd, 0x19, ystart >> 3);
3635 i2c_w(sd, 0x1a, yend >> 3);
3636 return 0;
2558 case SEN_OV8610: 3637 case SEN_OV8610:
2559 /* For OV8610 qvga means qsvga */ 3638 /* For OV8610 qvga means qsvga */
2560 i2c_w_mask(sd, OV7610_REG_COM_C, qvga ? (1 << 5) : 0, 1 << 5); 3639 i2c_w_mask(sd, OV7610_REG_COM_C, qvga ? (1 << 5) : 0, 1 << 5);
3640 i2c_w_mask(sd, 0x13, 0x00, 0x20); /* Select 16 bit data bus */
3641 i2c_w_mask(sd, 0x12, 0x04, 0x06); /* AWB: 1 Test pattern: 0 */
3642 i2c_w_mask(sd, 0x2d, 0x00, 0x40); /* from windrv 090403 */
3643 i2c_w_mask(sd, 0x28, 0x20, 0x20); /* progressive mode on */
2561 break; 3644 break;
2562 case SEN_OV7610: 3645 case SEN_OV7610:
2563 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20); 3646 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20);
3647 i2c_w(sd, 0x35, qvga?0x1e:0x9e);
3648 i2c_w_mask(sd, 0x13, 0x00, 0x20); /* Select 16 bit data bus */
3649 i2c_w_mask(sd, 0x12, 0x04, 0x06); /* AWB: 1 Test pattern: 0 */
2564 break; 3650 break;
2565 case SEN_OV7620: 3651 case SEN_OV7620:
2566 case SEN_OV76BE: 3652 case SEN_OV76BE:
@@ -2571,6 +3657,10 @@ static int mode_init_ov_sensor_regs(struct sd *sd)
2571 i2c_w_mask(sd, 0x2d, qvga ? 0x40 : 0x00, 0x40); 3657 i2c_w_mask(sd, 0x2d, qvga ? 0x40 : 0x00, 0x40);
2572 i2c_w_mask(sd, 0x67, qvga ? 0xb0 : 0x90, 0xf0); 3658 i2c_w_mask(sd, 0x67, qvga ? 0xb0 : 0x90, 0xf0);
2573 i2c_w_mask(sd, 0x74, qvga ? 0x20 : 0x00, 0x20); 3659 i2c_w_mask(sd, 0x74, qvga ? 0x20 : 0x00, 0x20);
3660 i2c_w_mask(sd, 0x13, 0x00, 0x20); /* Select 16 bit data bus */
3661 i2c_w_mask(sd, 0x12, 0x04, 0x06); /* AWB: 1 Test pattern: 0 */
3662 if (sd->sensor == SEN_OV76BE)
3663 i2c_w(sd, 0x35, qvga ? 0x1e : 0x9e);
2574 break; 3664 break;
2575 case SEN_OV7640: 3665 case SEN_OV7640:
2576 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20); 3666 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20);
@@ -2580,6 +3670,7 @@ static int mode_init_ov_sensor_regs(struct sd *sd)
2580/* i2c_w_mask(sd, 0x2d, qvga ? 0x40 : 0x00, 0x40); */ 3670/* i2c_w_mask(sd, 0x2d, qvga ? 0x40 : 0x00, 0x40); */
2581/* i2c_w_mask(sd, 0x67, qvga ? 0xf0 : 0x90, 0xf0); */ 3671/* i2c_w_mask(sd, 0x67, qvga ? 0xf0 : 0x90, 0xf0); */
2582/* i2c_w_mask(sd, 0x74, qvga ? 0x20 : 0x00, 0x20); */ 3672/* i2c_w_mask(sd, 0x74, qvga ? 0x20 : 0x00, 0x20); */
3673 i2c_w_mask(sd, 0x12, 0x04, 0x04); /* AWB: 1 */
2583 break; 3674 break;
2584 case SEN_OV7670: 3675 case SEN_OV7670:
2585 /* set COM7_FMT_VGA or COM7_FMT_QVGA 3676 /* set COM7_FMT_VGA or COM7_FMT_QVGA
@@ -2588,55 +3679,56 @@ static int mode_init_ov_sensor_regs(struct sd *sd)
2588 i2c_w_mask(sd, OV7670_REG_COM7, 3679 i2c_w_mask(sd, OV7670_REG_COM7,
2589 qvga ? OV7670_COM7_FMT_QVGA : OV7670_COM7_FMT_VGA, 3680 qvga ? OV7670_COM7_FMT_QVGA : OV7670_COM7_FMT_VGA,
2590 OV7670_COM7_FMT_MASK); 3681 OV7670_COM7_FMT_MASK);
3682 i2c_w_mask(sd, 0x13, 0x00, 0x20); /* Select 16 bit data bus */
3683 i2c_w_mask(sd, OV7670_REG_COM8, OV7670_COM8_AWB,
3684 OV7670_COM8_AWB);
3685 if (qvga) { /* QVGA from ov7670.c by
3686 * Jonathan Corbet */
3687 xstart = 164;
3688 xend = 28;
3689 ystart = 14;
3690 yend = 494;
3691 } else { /* VGA */
3692 xstart = 158;
3693 xend = 14;
3694 ystart = 10;
3695 yend = 490;
3696 }
3697 /* OV7670 hardware window registers are split across
3698 * multiple locations */
3699 i2c_w(sd, OV7670_REG_HSTART, xstart >> 3);
3700 i2c_w(sd, OV7670_REG_HSTOP, xend >> 3);
3701 v = i2c_r(sd, OV7670_REG_HREF);
3702 v = (v & 0xc0) | ((xend & 0x7) << 3) | (xstart & 0x07);
3703 msleep(10); /* need to sleep between read and write to
3704 * same reg! */
3705 i2c_w(sd, OV7670_REG_HREF, v);
3706
3707 i2c_w(sd, OV7670_REG_VSTART, ystart >> 2);
3708 i2c_w(sd, OV7670_REG_VSTOP, yend >> 2);
3709 v = i2c_r(sd, OV7670_REG_VREF);
3710 v = (v & 0xc0) | ((yend & 0x3) << 2) | (ystart & 0x03);
3711 msleep(10); /* need to sleep between read and write to
3712 * same reg! */
3713 i2c_w(sd, OV7670_REG_VREF, v);
2591 break; 3714 break;
2592 case SEN_OV6620: 3715 case SEN_OV6620:
3716 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20);
3717 i2c_w_mask(sd, 0x13, 0x00, 0x20); /* Select 16 bit data bus */
3718 i2c_w_mask(sd, 0x12, 0x04, 0x06); /* AWB: 1 Test pattern: 0 */
3719 break;
2593 case SEN_OV6630: 3720 case SEN_OV6630:
2594 case SEN_OV66308AF: 3721 case SEN_OV66308AF:
2595 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20); 3722 i2c_w_mask(sd, 0x14, qvga ? 0x20 : 0x00, 0x20);
3723 i2c_w_mask(sd, 0x12, 0x04, 0x06); /* AWB: 1 Test pattern: 0 */
2596 break; 3724 break;
2597 default: 3725 default:
2598 return -EINVAL; 3726 return -EINVAL;
2599 } 3727 }
2600 3728
2601 /******** Palette-specific regs ********/
2602
2603 /* The OV518 needs special treatment. Although both the OV518
2604 * and the OV6630 support a 16-bit video bus, only the 8 bit Y
2605 * bus is actually used. The UV bus is tied to ground.
2606 * Therefore, the OV6630 needs to be in 8-bit multiplexed
2607 * output mode */
2608
2609 /* OV7640 is 8-bit only */
2610
2611 if (sd->sensor != SEN_OV6630 && sd->sensor != SEN_OV66308AF &&
2612 sd->sensor != SEN_OV7640)
2613 i2c_w_mask(sd, 0x13, 0x00, 0x20);
2614
2615 /******** Clock programming ********/ 3729 /******** Clock programming ********/
2616 i2c_w(sd, 0x11, sd->clockdiv); 3730 i2c_w(sd, 0x11, sd->clockdiv);
2617 3731
2618 /******** Special Features ********/
2619/* no evidence this is possible with OV7670, either */
2620 /* Test Pattern */
2621 if (sd->sensor != SEN_OV7640 && sd->sensor != SEN_OV7670)
2622 i2c_w_mask(sd, 0x12, 0x00, 0x02);
2623
2624 /* Enable auto white balance */
2625 if (sd->sensor == SEN_OV7670)
2626 i2c_w_mask(sd, OV7670_REG_COM8, OV7670_COM8_AWB,
2627 OV7670_COM8_AWB);
2628 else
2629 i2c_w_mask(sd, 0x12, 0x04, 0x04);
2630
2631 /* This will go away as soon as ov51x_mode_init_sensor_regs() */
2632 /* is fully tested. */
2633 /* 7620/6620/6630? don't have register 0x35, so play it safe */
2634 if (sd->sensor == SEN_OV7610 || sd->sensor == SEN_OV76BE) {
2635 if (!qvga)
2636 i2c_w(sd, 0x35, 0x9e);
2637 else
2638 i2c_w(sd, 0x35, 0x1e);
2639 }
2640 return 0; 3732 return 0;
2641} 3733}
2642 3734
@@ -2659,8 +3751,12 @@ static int set_ov_sensor_window(struct sd *sd)
2659 struct gspca_dev *gspca_dev; 3751 struct gspca_dev *gspca_dev;
2660 int qvga, crop; 3752 int qvga, crop;
2661 int hwsbase, hwebase, vwsbase, vwebase, hwscale, vwscale; 3753 int hwsbase, hwebase, vwsbase, vwebase, hwscale, vwscale;
2662 int ret, hstart, hstop, vstop, vstart; 3754 int ret;
2663 __u8 v; 3755
3756 /* mode setup is fully handled in mode_init_ov_sensor_regs for these */
3757 if (sd->sensor == SEN_OV2610 || sd->sensor == SEN_OV3610 ||
3758 sd->sensor == SEN_OV7670)
3759 return mode_init_ov_sensor_regs(sd);
2664 3760
2665 gspca_dev = &sd->gspca_dev; 3761 gspca_dev = &sd->gspca_dev;
2666 qvga = gspca_dev->cam.cam_mode[(int) gspca_dev->curr_mode].priv & 1; 3762 qvga = gspca_dev->cam.cam_mode[(int) gspca_dev->curr_mode].priv & 1;
@@ -2708,11 +3804,6 @@ static int set_ov_sensor_window(struct sd *sd)
2708 hwebase = 0x1a; 3804 hwebase = 0x1a;
2709 vwsbase = vwebase = 0x03; 3805 vwsbase = vwebase = 0x03;
2710 break; 3806 break;
2711 case SEN_OV7670:
2712 /*handling of OV7670 hardware sensor start and stop values
2713 * is very odd, compared to the other OV sensors */
2714 vwsbase = vwebase = hwebase = hwsbase = 0x00;
2715 break;
2716 default: 3807 default:
2717 return -EINVAL; 3808 return -EINVAL;
2718 } 3809 }
@@ -2753,58 +3844,11 @@ static int set_ov_sensor_window(struct sd *sd)
2753 if (ret < 0) 3844 if (ret < 0)
2754 return ret; 3845 return ret;
2755 3846
2756 if (sd->sensor == SEN_OV8610) { 3847 i2c_w(sd, 0x17, hwsbase);
2757 i2c_w_mask(sd, 0x2d, 0x05, 0x40); 3848 i2c_w(sd, 0x18, hwebase + (sd->sensor_width >> hwscale));
2758 /* old 0x95, new 0x05 from windrv 090403 */ 3849 i2c_w(sd, 0x19, vwsbase);
2759 /* bits 5-7: reserved */ 3850 i2c_w(sd, 0x1a, vwebase + (sd->sensor_height >> vwscale));
2760 i2c_w_mask(sd, 0x28, 0x20, 0x20);
2761 /* bit 5: progressive mode on */
2762 }
2763
2764 /* The below is wrong for OV7670s because their window registers
2765 * only store the high bits in 0x17 to 0x1a */
2766
2767 /* SRH Use sd->max values instead of requested win values */
2768 /* SCS Since we're sticking with only the max hardware widths
2769 * for a given mode */
2770 /* I can hard code this for OV7670s */
2771 /* Yes, these numbers do look odd, but they're tested and work! */
2772 if (sd->sensor == SEN_OV7670) {
2773 if (qvga) { /* QVGA from ov7670.c by
2774 * Jonathan Corbet */
2775 hstart = 164;
2776 hstop = 28;
2777 vstart = 14;
2778 vstop = 494;
2779 } else { /* VGA */
2780 hstart = 158;
2781 hstop = 14;
2782 vstart = 10;
2783 vstop = 490;
2784 }
2785 /* OV7670 hardware window registers are split across
2786 * multiple locations */
2787 i2c_w(sd, OV7670_REG_HSTART, hstart >> 3);
2788 i2c_w(sd, OV7670_REG_HSTOP, hstop >> 3);
2789 v = i2c_r(sd, OV7670_REG_HREF);
2790 v = (v & 0xc0) | ((hstop & 0x7) << 3) | (hstart & 0x07);
2791 msleep(10); /* need to sleep between read and write to
2792 * same reg! */
2793 i2c_w(sd, OV7670_REG_HREF, v);
2794 3851
2795 i2c_w(sd, OV7670_REG_VSTART, vstart >> 2);
2796 i2c_w(sd, OV7670_REG_VSTOP, vstop >> 2);
2797 v = i2c_r(sd, OV7670_REG_VREF);
2798 v = (v & 0xc0) | ((vstop & 0x3) << 2) | (vstart & 0x03);
2799 msleep(10); /* need to sleep between read and write to
2800 * same reg! */
2801 i2c_w(sd, OV7670_REG_VREF, v);
2802 } else {
2803 i2c_w(sd, 0x17, hwsbase);
2804 i2c_w(sd, 0x18, hwebase + (sd->gspca_dev.width >> hwscale));
2805 i2c_w(sd, 0x19, vwsbase);
2806 i2c_w(sd, 0x1a, vwebase + (sd->gspca_dev.height >> vwscale));
2807 }
2808 return 0; 3852 return 0;
2809} 3853}
2810 3854
@@ -2814,6 +3858,10 @@ static int sd_start(struct gspca_dev *gspca_dev)
2814 struct sd *sd = (struct sd *) gspca_dev; 3858 struct sd *sd = (struct sd *) gspca_dev;
2815 int ret = 0; 3859 int ret = 0;
2816 3860
3861 /* Default for most bridges, allow bridge_mode_init_regs to override */
3862 sd->sensor_width = sd->gspca_dev.width;
3863 sd->sensor_height = sd->gspca_dev.height;
3864
2817 switch (sd->bridge) { 3865 switch (sd->bridge) {
2818 case BRIDGE_OV511: 3866 case BRIDGE_OV511:
2819 case BRIDGE_OV511PLUS: 3867 case BRIDGE_OV511PLUS:
@@ -2826,6 +3874,10 @@ static int sd_start(struct gspca_dev *gspca_dev)
2826 case BRIDGE_OV519: 3874 case BRIDGE_OV519:
2827 ret = ov519_mode_init_regs(sd); 3875 ret = ov519_mode_init_regs(sd);
2828 break; 3876 break;
3877 /* case BRIDGE_OVFX2: nothing to do */
3878 case BRIDGE_W9968CF:
3879 ret = w9968cf_mode_init_regs(sd);
3880 break;
2829 } 3881 }
2830 if (ret < 0) 3882 if (ret < 0)
2831 goto out; 3883 goto out;
@@ -2859,10 +3911,17 @@ static void sd_stopN(struct gspca_dev *gspca_dev)
2859 ov51x_led_control(sd, 0); 3911 ov51x_led_control(sd, 0);
2860} 3912}
2861 3913
3914static void sd_stop0(struct gspca_dev *gspca_dev)
3915{
3916 struct sd *sd = (struct sd *) gspca_dev;
3917
3918 if (sd->bridge == BRIDGE_W9968CF)
3919 w9968cf_stop0(sd);
3920}
3921
2862static void ov511_pkt_scan(struct gspca_dev *gspca_dev, 3922static void ov511_pkt_scan(struct gspca_dev *gspca_dev,
2863 struct gspca_frame *frame, /* target */ 3923 u8 *in, /* isoc packet */
2864 __u8 *in, /* isoc packet */ 3924 int len) /* iso packet length */
2865 int len) /* iso packet length */
2866{ 3925{
2867 struct sd *sd = (struct sd *) gspca_dev; 3926 struct sd *sd = (struct sd *) gspca_dev;
2868 3927
@@ -2893,11 +3952,11 @@ static void ov511_pkt_scan(struct gspca_dev *gspca_dev,
2893 return; 3952 return;
2894 } 3953 }
2895 /* Add 11 byte footer to frame, might be usefull */ 3954 /* Add 11 byte footer to frame, might be usefull */
2896 gspca_frame_add(gspca_dev, LAST_PACKET, frame, in, 11); 3955 gspca_frame_add(gspca_dev, LAST_PACKET, in, 11);
2897 return; 3956 return;
2898 } else { 3957 } else {
2899 /* Frame start */ 3958 /* Frame start */
2900 gspca_frame_add(gspca_dev, FIRST_PACKET, frame, in, 0); 3959 gspca_frame_add(gspca_dev, FIRST_PACKET, in, 0);
2901 sd->packet_nr = 0; 3960 sd->packet_nr = 0;
2902 } 3961 }
2903 } 3962 }
@@ -2906,12 +3965,11 @@ static void ov511_pkt_scan(struct gspca_dev *gspca_dev,
2906 len--; 3965 len--;
2907 3966
2908 /* intermediate packet */ 3967 /* intermediate packet */
2909 gspca_frame_add(gspca_dev, INTER_PACKET, frame, in, len); 3968 gspca_frame_add(gspca_dev, INTER_PACKET, in, len);
2910} 3969}
2911 3970
2912static void ov518_pkt_scan(struct gspca_dev *gspca_dev, 3971static void ov518_pkt_scan(struct gspca_dev *gspca_dev,
2913 struct gspca_frame *frame, /* target */ 3972 u8 *data, /* isoc packet */
2914 __u8 *data, /* isoc packet */
2915 int len) /* iso packet length */ 3973 int len) /* iso packet length */
2916{ 3974{
2917 struct sd *sd = (struct sd *) gspca_dev; 3975 struct sd *sd = (struct sd *) gspca_dev;
@@ -2919,8 +3977,8 @@ static void ov518_pkt_scan(struct gspca_dev *gspca_dev,
2919 /* A false positive here is likely, until OVT gives me 3977 /* A false positive here is likely, until OVT gives me
2920 * the definitive SOF/EOF format */ 3978 * the definitive SOF/EOF format */
2921 if ((!(data[0] | data[1] | data[2] | data[3] | data[5])) && data[6]) { 3979 if ((!(data[0] | data[1] | data[2] | data[3] | data[5])) && data[6]) {
2922 frame = gspca_frame_add(gspca_dev, LAST_PACKET, frame, data, 0); 3980 gspca_frame_add(gspca_dev, LAST_PACKET, NULL, 0);
2923 gspca_frame_add(gspca_dev, FIRST_PACKET, frame, data, 0); 3981 gspca_frame_add(gspca_dev, FIRST_PACKET, NULL, 0);
2924 sd->packet_nr = 0; 3982 sd->packet_nr = 0;
2925 } 3983 }
2926 3984
@@ -2944,12 +4002,11 @@ static void ov518_pkt_scan(struct gspca_dev *gspca_dev,
2944 } 4002 }
2945 4003
2946 /* intermediate packet */ 4004 /* intermediate packet */
2947 gspca_frame_add(gspca_dev, INTER_PACKET, frame, data, len); 4005 gspca_frame_add(gspca_dev, INTER_PACKET, data, len);
2948} 4006}
2949 4007
2950static void ov519_pkt_scan(struct gspca_dev *gspca_dev, 4008static void ov519_pkt_scan(struct gspca_dev *gspca_dev,
2951 struct gspca_frame *frame, /* target */ 4009 u8 *data, /* isoc packet */
2952 __u8 *data, /* isoc packet */
2953 int len) /* iso packet length */ 4010 int len) /* iso packet length */
2954{ 4011{
2955 /* Header of ov519 is 16 bytes: 4012 /* Header of ov519 is 16 bytes:
@@ -2972,7 +4029,7 @@ static void ov519_pkt_scan(struct gspca_dev *gspca_dev,
2972 len -= HDRSZ; 4029 len -= HDRSZ;
2973#undef HDRSZ 4030#undef HDRSZ
2974 if (data[0] == 0xff || data[1] == 0xd8) 4031 if (data[0] == 0xff || data[1] == 0xd8)
2975 gspca_frame_add(gspca_dev, FIRST_PACKET, frame, 4032 gspca_frame_add(gspca_dev, FIRST_PACKET,
2976 data, len); 4033 data, len);
2977 else 4034 else
2978 gspca_dev->last_packet_type = DISCARD_PACKET; 4035 gspca_dev->last_packet_type = DISCARD_PACKET;
@@ -2980,20 +4037,31 @@ static void ov519_pkt_scan(struct gspca_dev *gspca_dev,
2980 case 0x51: /* end of frame */ 4037 case 0x51: /* end of frame */
2981 if (data[9] != 0) 4038 if (data[9] != 0)
2982 gspca_dev->last_packet_type = DISCARD_PACKET; 4039 gspca_dev->last_packet_type = DISCARD_PACKET;
2983 gspca_frame_add(gspca_dev, LAST_PACKET, frame, 4040 gspca_frame_add(gspca_dev, LAST_PACKET,
2984 data, 0); 4041 NULL, 0);
2985 return; 4042 return;
2986 } 4043 }
2987 } 4044 }
2988 4045
2989 /* intermediate packet */ 4046 /* intermediate packet */
2990 gspca_frame_add(gspca_dev, INTER_PACKET, frame, 4047 gspca_frame_add(gspca_dev, INTER_PACKET, data, len);
2991 data, len); 4048}
4049
4050static void ovfx2_pkt_scan(struct gspca_dev *gspca_dev,
4051 u8 *data, /* isoc packet */
4052 int len) /* iso packet length */
4053{
4054 /* A short read signals EOF */
4055 if (len < OVFX2_BULK_SIZE) {
4056 gspca_frame_add(gspca_dev, LAST_PACKET, data, len);
4057 gspca_frame_add(gspca_dev, FIRST_PACKET, NULL, 0);
4058 return;
4059 }
4060 gspca_frame_add(gspca_dev, INTER_PACKET, data, len);
2992} 4061}
2993 4062
2994static void sd_pkt_scan(struct gspca_dev *gspca_dev, 4063static void sd_pkt_scan(struct gspca_dev *gspca_dev,
2995 struct gspca_frame *frame, /* target */ 4064 u8 *data, /* isoc packet */
2996 __u8 *data, /* isoc packet */
2997 int len) /* iso packet length */ 4065 int len) /* iso packet length */
2998{ 4066{
2999 struct sd *sd = (struct sd *) gspca_dev; 4067 struct sd *sd = (struct sd *) gspca_dev;
@@ -3001,14 +4069,20 @@ static void sd_pkt_scan(struct gspca_dev *gspca_dev,
3001 switch (sd->bridge) { 4069 switch (sd->bridge) {
3002 case BRIDGE_OV511: 4070 case BRIDGE_OV511:
3003 case BRIDGE_OV511PLUS: 4071 case BRIDGE_OV511PLUS:
3004 ov511_pkt_scan(gspca_dev, frame, data, len); 4072 ov511_pkt_scan(gspca_dev, data, len);
3005 break; 4073 break;
3006 case BRIDGE_OV518: 4074 case BRIDGE_OV518:
3007 case BRIDGE_OV518PLUS: 4075 case BRIDGE_OV518PLUS:
3008 ov518_pkt_scan(gspca_dev, frame, data, len); 4076 ov518_pkt_scan(gspca_dev, data, len);
3009 break; 4077 break;
3010 case BRIDGE_OV519: 4078 case BRIDGE_OV519:
3011 ov519_pkt_scan(gspca_dev, frame, data, len); 4079 ov519_pkt_scan(gspca_dev, data, len);
4080 break;
4081 case BRIDGE_OVFX2:
4082 ovfx2_pkt_scan(gspca_dev, data, len);
4083 break;
4084 case BRIDGE_W9968CF:
4085 w9968cf_pkt_scan(gspca_dev, data, len);
3012 break; 4086 break;
3013 } 4087 }
3014} 4088}
@@ -3124,7 +4198,8 @@ static void setcolors(struct gspca_dev *gspca_dev)
3124 4198
3125static void setautobrightness(struct sd *sd) 4199static void setautobrightness(struct sd *sd)
3126{ 4200{
3127 if (sd->sensor == SEN_OV7640 || sd->sensor == SEN_OV7670) 4201 if (sd->sensor == SEN_OV7640 || sd->sensor == SEN_OV7670 ||
4202 sd->sensor == SEN_OV2610 || sd->sensor == SEN_OV3610)
3128 return; 4203 return;
3129 4204
3130 i2c_w_mask(sd, 0x2d, sd->autobrightness ? 0x10 : 0x00, 0x10); 4205 i2c_w_mask(sd, 0x2d, sd->autobrightness ? 0x10 : 0x00, 0x10);
@@ -3132,6 +4207,9 @@ static void setautobrightness(struct sd *sd)
3132 4207
3133static void setfreq(struct sd *sd) 4208static void setfreq(struct sd *sd)
3134{ 4209{
4210 if (sd->sensor == SEN_OV2610 || sd->sensor == SEN_OV3610)
4211 return;
4212
3135 if (sd->sensor == SEN_OV7670) { 4213 if (sd->sensor == SEN_OV7670) {
3136 switch (sd->freq) { 4214 switch (sd->freq) {
3137 case 0: /* Banding filter disabled */ 4215 case 0: /* Banding filter disabled */
@@ -3301,8 +4379,12 @@ static int sd_setfreq(struct gspca_dev *gspca_dev, __s32 val)
3301 struct sd *sd = (struct sd *) gspca_dev; 4379 struct sd *sd = (struct sd *) gspca_dev;
3302 4380
3303 sd->freq = val; 4381 sd->freq = val;
3304 if (gspca_dev->streaming) 4382 if (gspca_dev->streaming) {
3305 setfreq(sd); 4383 setfreq(sd);
4384 /* Ugly but necessary */
4385 if (sd->bridge == BRIDGE_W9968CF)
4386 w9968cf_set_crop_window(sd);
4387 }
3306 return 0; 4388 return 0;
3307} 4389}
3308 4390
@@ -3343,6 +4425,45 @@ static int sd_querymenu(struct gspca_dev *gspca_dev,
3343 return -EINVAL; 4425 return -EINVAL;
3344} 4426}
3345 4427
4428static int sd_get_jcomp(struct gspca_dev *gspca_dev,
4429 struct v4l2_jpegcompression *jcomp)
4430{
4431 struct sd *sd = (struct sd *) gspca_dev;
4432
4433 if (sd->bridge != BRIDGE_W9968CF)
4434 return -EINVAL;
4435
4436 memset(jcomp, 0, sizeof *jcomp);
4437 jcomp->quality = sd->quality;
4438 jcomp->jpeg_markers = V4L2_JPEG_MARKER_DHT | V4L2_JPEG_MARKER_DQT |
4439 V4L2_JPEG_MARKER_DRI;
4440 return 0;
4441}
4442
4443static int sd_set_jcomp(struct gspca_dev *gspca_dev,
4444 struct v4l2_jpegcompression *jcomp)
4445{
4446 struct sd *sd = (struct sd *) gspca_dev;
4447
4448 if (sd->bridge != BRIDGE_W9968CF)
4449 return -EINVAL;
4450
4451 if (gspca_dev->streaming)
4452 return -EBUSY;
4453
4454 if (jcomp->quality < QUALITY_MIN)
4455 sd->quality = QUALITY_MIN;
4456 else if (jcomp->quality > QUALITY_MAX)
4457 sd->quality = QUALITY_MAX;
4458 else
4459 sd->quality = jcomp->quality;
4460
4461 /* Return resulting jcomp params to app */
4462 sd_get_jcomp(gspca_dev, jcomp);
4463
4464 return 0;
4465}
4466
3346/* sub-driver description */ 4467/* sub-driver description */
3347static const struct sd_desc sd_desc = { 4468static const struct sd_desc sd_desc = {
3348 .name = MODULE_NAME, 4469 .name = MODULE_NAME,
@@ -3352,18 +4473,23 @@ static const struct sd_desc sd_desc = {
3352 .init = sd_init, 4473 .init = sd_init,
3353 .start = sd_start, 4474 .start = sd_start,
3354 .stopN = sd_stopN, 4475 .stopN = sd_stopN,
4476 .stop0 = sd_stop0,
3355 .pkt_scan = sd_pkt_scan, 4477 .pkt_scan = sd_pkt_scan,
3356 .querymenu = sd_querymenu, 4478 .querymenu = sd_querymenu,
4479 .get_jcomp = sd_get_jcomp,
4480 .set_jcomp = sd_set_jcomp,
3357}; 4481};
3358 4482
3359/* -- module initialisation -- */ 4483/* -- module initialisation -- */
3360static const __devinitdata struct usb_device_id device_table[] = { 4484static const __devinitdata struct usb_device_id device_table[] = {
4485 {USB_DEVICE(0x041e, 0x4003), .driver_info = BRIDGE_W9968CF },
3361 {USB_DEVICE(0x041e, 0x4052), .driver_info = BRIDGE_OV519 }, 4486 {USB_DEVICE(0x041e, 0x4052), .driver_info = BRIDGE_OV519 },
3362 {USB_DEVICE(0x041e, 0x405f), .driver_info = BRIDGE_OV519 }, 4487 {USB_DEVICE(0x041e, 0x405f), .driver_info = BRIDGE_OV519 },
3363 {USB_DEVICE(0x041e, 0x4060), .driver_info = BRIDGE_OV519 }, 4488 {USB_DEVICE(0x041e, 0x4060), .driver_info = BRIDGE_OV519 },
3364 {USB_DEVICE(0x041e, 0x4061), .driver_info = BRIDGE_OV519 }, 4489 {USB_DEVICE(0x041e, 0x4061), .driver_info = BRIDGE_OV519 },
3365 {USB_DEVICE(0x041e, 0x4064), 4490 {USB_DEVICE(0x041e, 0x4064),
3366 .driver_info = BRIDGE_OV519 | BRIDGE_INVERT_LED }, 4491 .driver_info = BRIDGE_OV519 | BRIDGE_INVERT_LED },
4492 {USB_DEVICE(0x041e, 0x4067), .driver_info = BRIDGE_OV519 },
3367 {USB_DEVICE(0x041e, 0x4068), 4493 {USB_DEVICE(0x041e, 0x4068),
3368 .driver_info = BRIDGE_OV519 | BRIDGE_INVERT_LED }, 4494 .driver_info = BRIDGE_OV519 | BRIDGE_INVERT_LED },
3369 {USB_DEVICE(0x045e, 0x028c), .driver_info = BRIDGE_OV519 }, 4495 {USB_DEVICE(0x045e, 0x028c), .driver_info = BRIDGE_OV519 },
@@ -3373,11 +4499,16 @@ static const __devinitdata struct usb_device_id device_table[] = {
3373 {USB_DEVICE(0x05a9, 0x0518), .driver_info = BRIDGE_OV518 }, 4499 {USB_DEVICE(0x05a9, 0x0518), .driver_info = BRIDGE_OV518 },
3374 {USB_DEVICE(0x05a9, 0x0519), .driver_info = BRIDGE_OV519 }, 4500 {USB_DEVICE(0x05a9, 0x0519), .driver_info = BRIDGE_OV519 },
3375 {USB_DEVICE(0x05a9, 0x0530), .driver_info = BRIDGE_OV519 }, 4501 {USB_DEVICE(0x05a9, 0x0530), .driver_info = BRIDGE_OV519 },
4502 {USB_DEVICE(0x05a9, 0x2800), .driver_info = BRIDGE_OVFX2 },
3376 {USB_DEVICE(0x05a9, 0x4519), .driver_info = BRIDGE_OV519 }, 4503 {USB_DEVICE(0x05a9, 0x4519), .driver_info = BRIDGE_OV519 },
3377 {USB_DEVICE(0x05a9, 0x8519), .driver_info = BRIDGE_OV519 }, 4504 {USB_DEVICE(0x05a9, 0x8519), .driver_info = BRIDGE_OV519 },
3378 {USB_DEVICE(0x05a9, 0xa511), .driver_info = BRIDGE_OV511PLUS }, 4505 {USB_DEVICE(0x05a9, 0xa511), .driver_info = BRIDGE_OV511PLUS },
3379 {USB_DEVICE(0x05a9, 0xa518), .driver_info = BRIDGE_OV518PLUS }, 4506 {USB_DEVICE(0x05a9, 0xa518), .driver_info = BRIDGE_OV518PLUS },
3380 {USB_DEVICE(0x0813, 0x0002), .driver_info = BRIDGE_OV511PLUS }, 4507 {USB_DEVICE(0x0813, 0x0002), .driver_info = BRIDGE_OV511PLUS },
4508 {USB_DEVICE(0x0b62, 0x0059), .driver_info = BRIDGE_OVFX2 },
4509 {USB_DEVICE(0x0e96, 0xc001), .driver_info = BRIDGE_OVFX2 },
4510 {USB_DEVICE(0x1046, 0x9967), .driver_info = BRIDGE_W9968CF },
4511 {USB_DEVICE(0x8020, 0xEF04), .driver_info = BRIDGE_OVFX2 },
3381 {} 4512 {}
3382}; 4513};
3383 4514
generated by cgit v1.2.2 (git 2.25.0) at 2024-12-26 03:51:10 -0500