STV0680B+ VV6410/6411/6500 ® DUAL-MODE DIGITAL CAMERA CHIPSET DESCRIPTION NEW FEATURES AVAILABLE IN STV0680B-003 STMicroelectronics Imaging Division has enhanced the feature set of the STV0680B low cost dualmode camera chipset to allow a new line of low cost cameras or toy products to be brought to the market. ● Audio record/playback and “Delete Last” function ● Custom sounds playback (e.g. “Talking” or “Musical” camera) ● Flashgun support STANDARD FEATURES ● Quick Power Down (by holding Mode Button). ST have maintained the standard features already available in the successful STV0680B-001 chipset, including: ● STV0680B-003 fully backward compatible with STV0680B-001 ● Support for VV6410/6411 (CIF) and VV6500 (VGA) CMOS imaging sensors. ● Support for SDRAM sizes 16MBit (up to 20 CIF images) or 64Mbit (up to 80 CIF or 26 VGA images). ● Low resolution “economy” mode allows for more images to be stored. ● High frame rate web cam (tethered video) over USB. ● Automatic anti-flicker exposure control. ● Image up load over RS232 or USB. ● Driver support for Win98/Win2k/WinME and MacOS 8.6/9.0/9.1. ● Continuous capture while untethered (except when Flashgun enabled) and downloading to AVI file format ● Power-saving “stand-by” mode which maintains memory contents, as well as generally low power consumption. The enhanced features included in STV0680B-003 allow audio memos to be recorded, stored in SDRAM, and uploaded to the PC over USB or RS232, to be played back using an OEM software application developed using the SDK With the addition of playback hardware, recorded audio sounds can also be played back on the camera, and it is possible to download a set of custom sounds from the PC to allow (e.g.) shutter “Click-Whirr”, or for a “Talking Camera”. This has limitless possibilities for OEM language customising or licensing. Flashgun Support and “Delete Last” Function STV0680B-003 includes flashgun support for an OEM flashgun module. An additional user interface function is available in STV0680B-003 which allows the user to delete the last image, continuous clip or audio memo which was captured or recorded. Evaluation Kit and Reference Design Evaluation kits are available for both standard features and enhanced STV0680B-003 features. Precise design guidelines are available from ST as a separate STV0680B Reference design manual (see Chapter 12). ● Simple user interface including 2 buttons, status LCD display, and buzzer. ● Evaluation Kit (EVK) available. ● Software Development Kit (SDK) allows OEM PC Software applications to be written. September 2001 Audio Record And Playback Note: Version 3.4 Simultaneous audio record and continuous video capture is not possible. 1/63 STV0680B+ VV6410/6411/6500 Table of contents Chapter 1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6 1.1 Digital camera chipset .......................................................................................................... 6 1.2 Co-processor choices .......................................................................................................... 7 1.3 Sensor choices ..................................................................................................................... 7 1.4 Key system features ............................................................................................................. 7 Chapter 2 Detailed features . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 2.1 Sensor type and image formats ......................................................................................... 10 2.2 User interface ..................................................................................................................... 11 2.3 Battery level detect and USB auto-switch .......................................................................... 13 2.4 Audio record and playback ................................................................................................. 13 2.5 PC interface options and software support ........................................................................ 14 2.6 Anti-flicker exposure and gain control ................................................................................ 15 Chapter 3 Camera modes of operation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .16 3.1 Modes available (STV0680B-001) ..................................................................................... 16 3.2 Modes available (STV0680B-003) ..................................................................................... 17 3.3 Description of modes ......................................................................................................... 17 Chapter 4 STV0680B hardware interfaces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .20 4.1 STV0680B pinout ............................................................................................................... 20 4.2 Sensor interface ................................................................................................................. 20 4.3 Memory interface ............................................................................................................... 20 4.4 USB interface ..................................................................................................................... 22 4.5 UART module for RS232 interface ..................................................................................... 23 4.6 Power management and battery type ................................................................................ 23 4.7 Quartz crystal ..................................................................................................................... 24 4.8 Numeric LCD interface ....................................................................................................... 24 4.9 Switches and LED’s ........................................................................................................... 24 4.10 Flashgun hardware interface (STV0680B-003 only) .......................................................... 25 4.11 IR filter ................................................................................................................................ 25 Chapter 5 Software support . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26 2/63 Version 3.4 STV0680B+ VV6410/6411/6500 5.1 General features ................................................................................................................ 26 5.2 Software installation ........................................................................................................... 26 Chapter 6 Detailed chipset specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .28 6.1 Typical camera specifications ............................................................................................ 28 6.2 STV0680B companion processor ...................................................................................... 29 6.3 VV6444 sensor ................................................................................................................... 30 6.4 VV6410/6411 and VV6500 sensors ................................................................................... 32 6.5 Typical current consumption of complete camera .............................................................. 33 Chapter 7 STV0680 Camera System Defect Specification . . . . . . . . . . . . . . . . . . . . . . . . .35 7.1 General .............................................................................................................................. 35 7.2 Defect specification ............................................................................................................ 35 7.3 Definition of the "Camera System" ..................................................................................... 35 7.4 Definition of the "Test Conditions" ...................................................................................... 37 7.5 Definition of a "Major Visible Defect" .................................................................................. 37 7.6 Definition of the "Final Colour Image" ................................................................................ 39 7.7 Definition of a “Minor Visible Defect” .................................................................................. 39 Chapter 8 STV0680B pinout information and package dimensions . . . . . . . . . . . . . . . . .40 8.1 STV0680B pinout ............................................................................................................... 40 8.2 STV0680B pin description .................................................................................................. 46 8.3 STV0680B package dimensions ........................................................................................ 47 Chapter 9 VV6410/6411 pinout information and package dimensions . . . . . . . . . . . . . . .48 9.1 VV6410/6411 pinout ........................................................................................................... 48 9.2 VV6410/6411 pin description ............................................................................................ 49 9.3 VV6410/6411 package dimensions .................................................................................... 51 Chapter 10 VV6500 pinout information and package dimensions . . . . . . . . . . . . . . . . . . .53 10.1 VV6500 pinout .................................................................................................................... 53 10.2 VV6500 pin description ...................................................................................................... 54 10.3 VV6500 package dimensions ............................................................................................. 56 Chapter 11 11.1 Schematics and example parts list . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .58 Schematics ......................................................................................................................... 58 Version 3.4 3/63 STV0680B+ VV6410/6411/6500 11.2 Chapter 12 4/63 Example parts list ............................................................................................................... 58 Evaluation Kit and Reference design manual . . . . . . . . . . . . . . . . . . . . . . . . . .61 12.1 Ordering details .................................................................................................................. 61 12.2 Technical support ............................................................................................................... 62 Version 3.4 STV0680B + VV6444/6410/6500 Revision update Main changes applied since last release, version 3.3: ● Updated camera defect specification Version 3.4 5/63 Introduction STV0680B + VV6444/6410/6500 1 Introduction 1.1 Digital camera chipset This document describes the features and functionality of a CMOS chipset, comprising an STMicroelectronics (ST) CIF or VGA resolution sensor and an STV0680B companion processor (DCA1), as well as outlining what peripheral components are required/supported in order to complete a camera using the chipset. Such a camera is particularly suited to dual-mode digital stills or toy applications. In stills mode, the camera stores raw image data in memory. The camera carries out no colour processing, ensuring its simplicity and low cost. Subsequent download of raw data to a PC or Macintosh for processing is done through an RS232 or USB interface, through demo software, a TWAIN driver, or OEM custom application. The license to use the colour algorithm (embedded in the PC or Mac driver software) is included in the price of the chipset. A video option is provided, when tethered through USB, which can allow for Video for Windows applications, and ‘video clips’ can be recorded while untethered by continuously capturing images while in ‘Continuous’ mode, then downloaded to the PC for playback, using software to create an AVI file. Using STV0680B-003, the firmware also includes the capability to trigger a flashgun module through a two wire interface (enable input and trigger output), and the capability to record audio sounds into the SDRAM, for subsequent upload to the PC, or to replay audio sounds which have either been recorded on the camera or dowloaded from the PC (stored on the PC as.WAV files). Precise design guidelines are available from ST as a reference design (see Section 4). A software development kit (SDK) for PC is available from ST, to interface to the camera and provide the basis for developing a custom software application for stills and/or video, which includes colour processing software as object code. LED Audio Speaker Amplifier Push Buttons: “Shutter /Record” Flashgun Enable/Trigger 2 x 7 seg. LCD “Mode” CMOS Sensor OEM Flashgun Module VV6410/6411(CIF) VV6500 (VGA) Microphone Comparator GPIO Enable/Trigger Audio Pre-Amp LCD memory Driver I/F Audio DAC Sensor data Sensor clock Sensor I/F Piezo Buzzer PWM RS232 I/F STV0680B Image Array Subject Lens + IR Filter USB I/F Detect Low Battery 16MBit or 64MBit SDRAM Transceiver Circuit (Discretes) Power Management Circuit (Discretes) 12MHz XTAL VReg 3v3 supply 4-5v (Nominal) supply from Battery or USB Figure 1 : Typical camera system block diagram 6/63 Version 3.4 RS232 interface to PC USB interface to PC 4.5 - 6v Battery e.g. 3-4 x AA, AAA, etc. STV0680B + VV6444/6410/6500 1.2 Introduction Co-processor choices Two revisions of the STV0680B are produced by ST. Although there are certain functional differences between these revisions, both have an identical pinouts and STV0680B-003 retains all the functionality of STV0680B-001, hence is backwards compatible. Order number Silicon revision STV0680B-001 STV680B-003 STV0680B STV0680B v1.00 v3.00 Firmware revision VV6444 VV6444 Sensor supported VV6410 VV6410 VV6411 VV6500 VV6500 16Mbit 16Mbit or 64Mbit or 64Mbit USB Yes Yes RS232 Yes Yes Video for Windows support Yes Yes Flash-gun support No Yes Audio record + playback No Yes Custom sounds No Yes SDRAM supported Table 1 : Differences between STV0680B-001 and STV0680B-003 1.3 Sensor choices The following sensors are supported: Sensor Resolution Sensor supply voltage VV6444 5v CIF (352 x 288) VV6410/6411 3.3v VV6500 VGA (640 x 480) Table 2 : Sensor choices with STV0680B 1.4 Key system features The key features of a typical camera based on the STV0680B chipset are as follows: 1.4.1 Image features (STV0680B-001) ● Support for 5V or 3.3V CIF resolution sensor (VV6444 or VV6410/6411) - 352 x 288 pixels ● Support for 3.3V VGA resolution sensor (VV6500) - 640 x 480 pixels ● 80 picture storage capacity possible for CIF, with 64MB memory ● 26 picture storage capacity for VGA, with 64MBit memory Version 3.4 7/63 Introduction ● ● 1.4.2 1.4.3 Automatic anti-flicker exposure and gain control ● All image features for STV0680B-001 are supported. ● Support for flashgun. User features on camera (STV0680B-001) ● Self-timer mode allows a picture to be captured after several seconds. ● Twin 7 segment LCD panel supported - showing number of pictures left, and modes. ● Picture counter helps the user to know how much memory is left. ● Un-tethered ‘Continuous’ mode allows capture of image sequences for storage in memory and subsequent download to PC. ● Piezo buzzer indicates a number of useful events to the user, e.g. whether enough light is present for picture capture, etc. ● Indicator LED. ● “Clear all” function clears camera. “Low Resolution” mode increases number of images which can be captured by reducing image resolution. User features on camera (STV0680B-003) ● All user features of STV0680B-001 are supported. ● Audio Record function (if audio record hardware detected) allows sounds to be recorded. ● Audio Playback function (if audio playback hardware fitted) allows sounds which have been recorded to be played back. ● “Delete last” function allows user to delete audio memos, pictures or continuous clips, deletion must be carried out “most reset first”. ● Camera can be configured by the user to play custom sounds at certain functions, using a PC application. ● 1.4.5 A greater number of images can be stored when ‘Low’ resolution mode is enabled (e.g. 80 QCIF images with 16Mbit memory, 107 QVGA images with 64Mbit memory). See Table 3. Image features (STV0680B-003) ● 1.4.4 STV0680B + VV6444/6410/6500 “Go to sleep” function, whereby the camera can be put into standby mode while untethered. User features on PC software (STV0680B-001) PC software allows a number of features, including fast download of thumbnail images for picture selection, and automatic detection and correction of sensor defects. The driver compatibility includes: ● ● TWAIN driver to suit all TWAIN compatible imaging applications Video for Windows PC driver for tethered video mode (through USB), available at all resolutions, with fastest framerates at QCIF resolution ● AVI video file creation from image sequences captured in ‘continuous’ mode ● Quicktime Video driver and Adobe Photoshop stills plug-in for Mac Custom OEM PC software can be developed by using the SDK (for SDK availability, contact ST), to upload thumbnails/still images or ‘continuous’ images, e.g. for AVI file creation. 8/63 Version 3.4 STV0680B + VV6444/6410/6500 1.4.6 Introduction User features on PC software (STV0680B-003) All PC software written for a STV0680B-001 camera will function with a STV0680B-003 camera which is only used to take still images/video. The SDK (version 2.90 or later) allows for: 1.4.7 ● the OEM to write a custom application for uploading sound memos, based on the example LCDC demo software. ● the OEM to write a custom application for downloading custom sounds to the camera, based on the example CustomSound software. Power management features and USB compliance ● 1.4.8 Retention of pictures, recorded sounds, and downloaded custom sounds with extremely low power operation, which appears to the user as if the camera is “switched off”. ● Auto power-off after 30sec with no user activity ● Operates from 4.5-6V battery, although system voltage is 5V or 3.3V, dependant on sensor. ● Low battery detection ● Dependant on hardware configuration, switch-over to USB power supply is supported, to allow the device to operate with low batteries or without batteries, when connected to USB. ● Full USB compliance requirements are listed in the USB specification, however, in a camera designed using this chipset, the following must at least be included: (a) an SDRAM with sufficiently low self-refresh current, (b) USB inrush protection circuitry, and (c) (in the case of VV6444 only) a switched 5V sensor supply is used, to maintain sufficient supply voltage to the 5V sensor. See Section 4 for further details. General features ● High speed picture/sounds upload to PC/Mac over USB ● ST Colour processing algorithms included under license (as part of drivers/SDK) ● USB or RS232 serial interface options, and VfW / TWAIN driver support. Version 3.4 9/63 Detailed features STV0680B + VV6444/6410/6500 2 Detailed features 2.1 Sensor type and image formats The sensor type is auto-detected by STV0680B, which ensures that the correct sensor timing is enabled, and the correct image resolutions are enabled, as shown in Table 3. For stills photography, ‘High’ or ‘Low’ resolution mode can be selected, to give CIF or QCIF pictures from a CIF sensor, and VGA or QVGA from a VGA sensor (see Table 3). Reduced resolution allows for storage of more images. Images captured in both ‘High’ and ‘Low’ resolution can be stored in camera memory at the same time. Therefore there is no need for images stored in memory to be cleared before changing image resolution. Where USB is connected, the host PC software (through a Video for Windows driver) can activate tethered video mode, regardless of the user inputs to the camera buttons. In this case, the image resolution is controlled by the PC driver. Note: When tethered VfW video (PC) or Quicktime driver (Mac) is activated, all images or recorded sounds or video clips will be deleted from the camera SDRAM. A software solution is available (“Camera control”, as part of the SDK for PC, and “Plug’n Save” for Mac) which can monitor whether a camera is connected and will warn the user if activating the VfW driver will cause SDRAM contents to be deleted. Sensor Sensor Image Size Max. no. of images Resolution stored in Final Image Size mode 16MBit memory (Note 2) High VV6444 CIF 352 x 288 Low High VV6410/ 6411 CIF 352 x 288 Low High VV6500 VGA 640 x 480 Low CIF 352 x 288 QCIF 176 x 144 (Subsampled) CIF 352 x 288 QCIF 176 x 144 (Subsampled) VGA 640 x 480 QVGA 320 x 240 (Subsampled) Max. no. of images stored in 64MBit memory (Note 2) Approximate VfW framerate (Note 1) 80 15 frames/sec. 20 80 322 (see Note 3) 20 80 80 322 (see Note 3) (6) (26) 26 107 (see Note 3) 25 frames/sec. 15 frames/sec. 22.5 frames/sec. 2 frames/sec. 12 frames/sec. Table 3 : Image modes supported (STV0680B-001) Note: 1 VfW framerate is dependent on PC performance and USB bus loading 2 On a camera using STV0680B-003, the number of images which can be stored is reduced if Audio sounds have been recorded on the camera or if custom sounds have been downloaded from the PC to the camera. The reduction of capacity depends on the length of audio clip, but a rough guide is that if 1 CIF image uses the same amount of SDRAM as 10sec of audio, and one VGA image uses the same amount of SDRAM as 30 sec. of audio. 10/63 Version 3.4 STV0680B + VV6444/6410/6500 Detailed features 3 A CIF camera with STV0680B-001 and 64Mbit SDRAM can store up to 320 images by using QCIF mode. Where >99 images are still available, the LCD display will remain at 99. Where (no. of images available) <99, the LCD display will show the number of images available, as is the case with all other modes. 2.1.1 VV6444 VV6444 is a CIF resolution, 5V CMOS imaging sensor and has been superseded by VV6410/6411. 2.1.2 VV6410 VV6410 is a CIF resolution, 3.3V CMOS imaging sensor. A brief specification is shown in Chapter 6. A dual design to support VV6444 and VV6410/6411 is not possible, since VV6410/6411 is a 3v3 sensor. A single footprint for VV6410/6411 and VV6500 is not possible since the package types differ, however, the same support circuit is used. For IR filter design, the best choice filter follows the GS0034 dielectric stack filter specification, which is available from ST. An alternative, although not optimal filter, would be Schott S8612 doped glass, also sold as CM500. 2.1.3 VV6411 VV6411 is a CIF resolution, 3.3V CMOS imaging sensor. A brief specification is shown in Chapter 6. The functionality, pixel size, resolution and support circuit are identical to VV6410, however, the colour filter material is slightly different, and the package type and pinout may differ to VV6410. Contact ST for further details. A single footprint to support VV6411 and VV6500 is not possible because of the package difference. A single footprint to support VV6410 and VV6411 may be possible, dependant on the final package for VV6411. 2.1.4 VV6500 VV6500 is a VGA resolution, 3.3V CMOS imaging sensor. A brief specification is shown in Chapter 6 A dual design to support VV6444 and VV6500 is not possible, since VV6500 is a 3v3 sensor. A single footprint for VV6410/6411 and VV6500 is not possible since the package types differ, however, the same support circuit is used. See Chapter 6. For IR filter design, the best choice filter follows the GS0034 dielectric stack filter specification, which is available from ST. An alternative, although not optimal filter, would be Schott S8612 doped glass, also sold as CM500. 2.1.5 SDRAM This is covered in more details in Chapter 4. 2.2 User interface The user interface supported by STV0680B comprises of user controls, buzzer sounds or customised audio sounds and visual displays. 2.2.1 Push buttons The following are the functions which are supported by the chipset. These functions are achievable with no more than 2 push buttons. Version 3.4 11/63 Detailed features STV0680B + VV6444/6410/6500 1 Mode button (Wake-up/Switch between modes): This button allows the user (1.1) to wake the camera up from standby mode when the camera is to be used for taking pictures, or (1.2) to switch between modes of operation shown in Chapter 3. 2 Shutter button (Shutter/confirm action): This button allows the user to take a picture or confirm an action, as shown in Chapter 3 The modes of operation are described in Chapter 3. It may also be desirable to include an on-off slider switch. This has advantages and disadvantages, and its exact function is discussed further in the reference design available from ST. Where a flashgun module is included in the camera, it will be necessary to include a flash on/flash off push button or slider switch, dependant on the exact flashgun module design. possible implementations are discussed in a separate application note AN1312 regarding flashgun implementation, available from ST. 2.2.2 LED indicator An LED display camera status, i.e. to show that the camera is not in Standby/PC suspend mode. 2.2.3 Picture counter using 2 x 7 segment display STV0680B stores a picture counter value, which shows how many images can still be captured. STV0680B supports a 2x7 segment LCD panel. In ‘Snapshot’ mode and continuous capture mode, this LCD panel displays the number of pictures still available, which is useful to identify when the user is approaching the maximum number of images which can be stored (see Table 3). It is possible to clear the images stored in memory, in order to continue taking pictures. In other modes, this LCD panel shows displays a 2-character code, which helps the user to navigate around the modes. Note: A CIF camera with STV0680B and 64Mbit SDRAM can store up to 320 images by using QCIF mode. Where >99 images are still available, the LCD display will remain at 99. Where (no. of images available) <99, the LCD display will show the number of images available, as is the case with all other modes. For suitable numeric LCD panel types, see Section 4.8. 2.2.4 Piezo buzzer An on-chip Pulse Width Modulator (PWM) on STV0680B is used to generate buzzer sounds to signal certain events. The following are typical of the type of events which are indicated by the buzzer, and each has its own distinctive sound: 12/63 1 Camera has been ‘Woken up’ from standby mode (either by the user pressing a button, by reconnecting the power source, or by connecting a USB/RS232 connection). 2 Camera has been ‘gone to sleep’ i.e. moved into standby mode. Pictures are retained in memory. 3 Picture has been successfully taken after the user presses the capture button. 4 Picture has NOT been taken after the user presses the capture button. This indicates to the user that there is insufficient light, or that the exposure control was not ready due to a rapid change of lighting in the scene. 5 Picture has NOT been taken after the user presses the capture button, due to picture counter having reached the maximum number of images. The user has the chance to zero the counter if desired. 6 End of continuous capture in un-tethered ‘Continuous’ mode, due to memory full. 7 Self-timer activated and counting down. Version 3.4 STV0680B + VV6444/6410/6500 2.2.5 Detailed features Custom sounds A camera which includes STV0680B-003 and Audio playback hardware can have a set of custom sounds downloaded from a PC application. A different sound can be associated with each of the following functions: Power On Sound delete Power Off Continuous clip delete Good picture Clear memory Bad picture (Normally due to insufficient light) Confirm action Memory full Low power Self timer #1 Flashgun ON Self timer #2 Flashgun OFF Low resolution Flashgun Trigger High resolution Frequency 50kHz Picture delete Frequency 60kHz Table 4 : List of custom sound functions Note: 1 Where a given function has a sound associated with it stored in SDRAM, the piezo buzzer does not give any beeps for that function. Not all functions need to have custom sounds associated with them, this is the choice of the user or OEM. 2 A demonstration PC application “CustomSounds” is available from ST, however this is not intended for end-users. Source code is available which allows the EOM to build their own PC application using the SDK. 2.3 Battery level detect and USB auto-switch An on-chip battery level detector on STV0680B detects when the battery voltage falls below a threshold. This threshold is determined by the designer, dependant on the perception of what remains as ‘acceptable’ image quality as the battery voltage falls. The chosen threshold level is determined by a resistor value, as shown in Chapter 6 Where no USB has been detected, the LCD display flashes, which indicates that the battery is low. Where a USB connection has been detected, the camera sources power from USB, if certain additional hardware is fitted. Note: It may be a requirement of certain USB compliance tests that such additional hardware is included in the camera design, in order to enable the camera to switch to supply from USB and hence report back to the PC while connected to the USB bus without a battery. 2.4 Audio record and playback 2.4.1 Record A camera which includes STV0680B-003 and a microphone, comparator and other periphery (also utilizing the sensor pre-amplifier) can be used to record sounds which are stored in the same way as images. STV0680B-003 will auto-detect the presence of Audio record hardware and include Version 3.4 13/63 Detailed features STV0680B + VV6444/6410/6500 audio record and “delete last” functions into the user interface. The audio sample rate is 11.025kHz, and the signal is digitised using a successive approximation A-D converter with 8 bits resolution. The SDRAM stores 1 second of Audio recording per 11k Bytes of memory. 2.4.2 Playback A camera which includes STV0680B-003 and an amplifier, speaker/headphone socket, and other periphery, can be used to playback sounds which were either recorded on the camera or downloaded from the PC. The quality of Audio playback is largely dependant on the type of speaker used, and on the correct mounting of the speaker in the camera plastics. 2.5 PC interface options and software support Either USB Interface (full speed 12Mbit/sec. max.) or RS232 interface (115.2Kbaud) is supported by the chipset, with driver software available from ST for both. The interface type is auto-detected by the chipset. PC software can be one of the following: 2.5.1 1 Simple image upload demonstration software supplied by ST, allowing uploading of stills or ‘continuous’ images. This software should not be supplied as an end-user product. 2 TWAIN driver to suit all TWAIN compatible imaging applications 3 Video for Windows driver for tethered video mode (USB only) 4 Custom end-user software developed by OEM using SDK (for SDK availability, contact ST). The SDK is supplied by ST as a 32-bit DLL format, running on Windows 98, and accessed through a documented software interface. This provides the basis for developing a custom software application for uploading stills and/or video. USB Complete images (displayed as either thumbnails or in full resolution), or the entire SDRAM contents (e.g. for uploading continuously captured image sequences, recorded using ‘Continuous Capture’ mode) can be downloaded through USB, and USB connection also allows for tethered video mode to be activated by the USB driver. Thumbnail image download is extremely fast for the entire memory contents in the camera. Once a picture is selected for download, full image download takes approximately 0.15 seconds per image for a CIF image (0.6 seconds for a VGA image), plus post processing time per image. For USB interface details, see Section 4.4. Note: Actual USB download and post processing time also depends on PC performance and USB bus loading 2.5.2 RS232 Thumbnails of images, complete stored images, or the entire SDRAM contents can be downloaded through RS232, but tethered video is not supported. Once a picture is selected for download, full image download takes approximately 10 seconds per image for a CIF image (around 30 seconds for a VGA image), plus post processing time per image (of the order of 1 second approximately). For RS232 interface details, see Section 4.5. Note: 14/63 Actual post processing time after RS232 download also depends on PC performance Version 3.4 STV0680B + VV6444/6410/6500 Detailed features 2.6 Anti-flicker exposure and gain control 2.6.1 General The chipset operates automatic exposure and gain control for either 50Hz or 60Hz mains-driven indoor lighting, using the same 12MHz crystal. This improves picture quality by selecting a set of exposure values which minimise ‘flicker’ effects. Detection of the mains frequency is dependant on the status of the GPIO3 pin, which can be achieved by population of a PCB link at a late stage in production, once the country of destination is known, without the need to change the crystal frequency. The auto exposure and gain algorithm is always enabled during Snapshot’/self-timer/continuous mode. When the shutter button is pressed in ‘Snapshot’ mode, the chipset captures an image if the exposure and gain value has reached a suitable value for the current scene. If the light detected has suddenly changed, the camera may emit an audible tone to indicate that more time is required to reach the correct exposure target. In ‘Snapshot’ mode the chipset only captures the image data if sufficient light is present in the image. In continuous capture mode, the chipset captures images regardless of whether enough light is present. The exposure control algorithm in STV0680B chooses exposure values which minimise “flicker” effects from occurring under fluorescent lighting. STV0680B can only prevent flicker in lighting powered by 50Hz or 60Hz electricity supply, but automatic detection of the flicker frequency is not possible. Hence choosing the correct anti-flicker setting is important, in order to prevent dark stripes form appearing across the image, and this selection must be done in hardware. Flicker setting not correct Flicker setting correct Figure 2 : Illustration of flicker problem 2.6.2 Flashgun exposure Where STV0680B-003 and a flashgun module are included in the camera, and the flashgun enable signal is HIGH, the exposure mode will operate in a different manner. The CMOS sensor progressive scan readout requires that the sensor is set to maximum exposure so that all lines are being exposed at a certain point in time. The “window” within which the flashgun needs to fire in order to correctly expose all sensor lines is of the order of a few 100µsec (contact ST for more precise details), therefore the flashgun module design should have reached maximum light output within this period after the falling edge of the flash trigger output from STV0680B-003. Possible flashgun implementations, regarding hardware interface, charge sensing, and flash energy required are discussed in a separate application note AN1312 regarding flashgun implementation, available from ST. Version 3.4 15/63 Camera modes of operation 3 STV0680B + VV6444/6410/6500 Camera modes of operation This section refers to the two switches as discussed in section Section 2.2.1 ● “Mode”: connects GPIO0 pin of STV0680B to GND when pressed ● “Shutter”: connects GPIO1 pin of STV0680B to GND when pressed Pressing the mode switch repeatedly cycles through a series of modes as displayed on the LCD. When a given mode is displayed it may be selected by pressing the shutter button. If an option is not selected within 5 seconds the display will revert to showing the number of available pictures. 3.1 Modes available (STV0680B-001) Press Mode button Normal: 20 / 80 After 30sec of inactivity Continuous Capture: Ct Standby mode (untethered) Self-Timer: St Clear All: CL Resolution: Hr / Lr Figure 3 : STV0680B-001modes (CIF camera with 16Mbit SDRAM assumed) Note that the number of images displayed depends on the sensor and SDRAM type - see Table 3. 16/63 Version 3.4 STV0680B + VV6444/6410/6500 3.2 Camera modes of operation Modes available (STV0680B-003) Press Mode button Normal: 20 / 80 After 30sec of inactivity Standby mode (untethered) Audio Record: Ar Notes: Audio Playback: AP 1. Audio Record only available if audio hardware is fitted 2. Audio Playback only available once an audio clip has been recorded Delete Last: dA / dP / dC Continuous Capture: Ct Self-Timer: St 3. Delete Last displays (only available if audio hardware fitted) dA - if the last object is an audio clip dP - if the last object is a picture dC - if the last object is a continuous capture clip The mode is inhibited if the camera is empty. 4. Continuous Capture mode is inhibited when the flashgun is enabled (SW6 down) Clear All: CL Resolution: Hr / Lr Figure 4 : STV0680B-003modes (CIF camera with 16Mbit SDRAM assumed) 3.3 Description of modes Note that certain modes are only available using STV0680B-003, and with appropriate hardware fitted on the camera. 3.3.1 Standby mode (untethered) and Wake-up On power-up, or wake-up from untethered standby mode, (i.e. by pressing the Mode button), the camera will beep twice. The LCD will briefly indicate the camera resolution either ‘Hr.’ for high resolution (80 CIF or 26 VGA images - using 64Mbit memory) or ‘Lr’ for low resolution (322 QCIF or 107 VGA images - using 64Mbit memory) and then display the number of pictures which may be taken. Please note that in Low Resolution Mode, although there can be up to 322 images available, the LCD counter will only go up to 99, it will continue reporting 99 until there are less than 99 images left. The camera will go back to standby mode either after 30 seconds of inactivity, LED1 will turn off and the LCD will go blank. This can also be done (STV0680B-003 only) by pressing the mode switch for more than 2 seconds. 3.3.2 Normal mode Pressing the shutter button will take a picture. The camera will beep. A high pitched beep indicates that the picture was taken successfully and the counter will decrement (if there are less than 99 images left to take). A low beep indicates insufficient light to take a picture. A series of beeps indicates that the camera is full. Version 3.4 17/63 Camera modes of operation STV0680B + VV6444/6410/6500 Stored pictures may be uploaded to a PC at any time, whether or not the camera is full. Plugging the USB connector into the camera will cause it to reset and issue a double beep but all stored pictures will remain. When the USB connector is unplugged the camera will go to sleep. When connected to the PC the camera may still be used in the normal way. Note: With the flashgun enabled (STV0680B-003 only) the camera will always take a picture, whether or not there is sufficient light. 3.3.3 Audio record - Ar This mode is available on STV0680B-003 only, with audio record hardware fitted. Pressing the shutter button within 5 seconds will cause the camera to start recording for as long as the shutter button is pressed down. If the shutter button is not pressed within 5 seconds the camera will revert to normal picture taking mode. Whilst recording, the LCD display flashes ‘Ar’. If the recording stops because the memory is full, the ‘memory full’ audio tone is sounded and the display will stop flashing and display ‘00’. The audio data is digitised and stored in SDRAM. 3.3.4 Audio Playback - AP This mode is available on STV0680B-003 only, with audio playback hardware fitted. Pressing the shutter button within 5 seconds will cause the camera to play back the most recent audio recording. If the shutter button is not pressed within 5 seconds the camera will revert to normal picture taking mode. Whilst playing, the LCD display flashes ‘AP’. Once in Audio Playback mode, repeated presses of the shutter button will step the camera through each of the audio recordings in the camera (most recent first). Keeping the shutter button pressed down will also cycle through the audio recordings. Pressing the mode button during playback will stop the audio clip. Note: Minimum audio recording length is set to 0.5 seconds. 3.3.5 Delete last object - dA/dP/dC This mode is available on STV0680B-003 only, with audio record hardware fitted. If the last object captured was an audio recording 'dA' (delete audio) will be displayed, if the last object was an image, then 'dP' (delete picture) will be displayed, or, if the last object was part of a continuous capture sequence, then 'dC' (delete continuous) will be displayed. If the camera is empty, the mode will be suppressed. The mode works in the same way as ‘CL’ (Clear All), i.e. once the mode is selected, pressing the shutter button once will cause the camera to beep and ‘dA’, ‘dP’ or ‘dC’ to start flashing. Pressing the shutter button again within 5 seconds will delete the last audio clip, picture or continuous capture sequence. 18/63 Version 3.4 STV0680B + VV6444/6410/6500 3.3.6 Camera modes of operation Continuous mode - Ct Pressing the shutter button within 5 seconds will cause the camera to start taking pictures for as long as the shutter button is pressed down (and the camera is not full). If the shutter button is not pressed within 5 seconds the camera will revert to normal picture taking mode. Note: 1 During continuous mode the camera will allow pictures to be taken regardless of the available light, which could result in insufficient exposure. 2 In continuous mode, only every alternate field is grabbed hence capture rate is halved. E.g. 12.5fps CIF and 7.5fps VGA 3 On STV0680B-003, Continuous Mode is suppressed when the FlashGun enable signal (GPIO2) is high. 3.3.7 Self timer - St Pressing the shutter button will now start a 10-second self-timer. The camera will issue a short beep every second and then a longer beep. A further beep will then indicate that the picture has been taken (high beep - picture successful, low beep - insufficient light, picture not taken). The self-timer mode can not be selected when the camera is full. The self-timer countdown cannot be stopped once it has started. 3.3.8 Clearing the camera memory - CL Pressing the shutter button once will cause the camera to beep and the ‘CL’ to start flashing. Pressing the shutter button again within 5 seconds will clear all the images/audio clips in the camera and reset the counter. 3.3.9 Changing picture resolution - Hr/Lr The resolution option is displayed, either Hr. to change to high-resolution mode (if currently in lowresolution mode) or Lr to change to low-resolution (if currently in high-resolution mode). Press the shutter button within 5 seconds of selecting the resolution option, the camera will beep and the display will reset indicating the number of pictures available in the new mode. The picture resolution can be changed at any time, i.e. the camera can store both high and low resolution images. Version 3.4 19/63 STV0680B hardware interfaces STV0680B + VV6444/6410/6500 4 STV0680B hardware interfaces 4.1 STV0680B pinout The STV0680B pinout has been carefully developed to minimise the physical size of the support printed circuit board by facilitating placement of and electrical routing to peripheral support components such as the SDRAM. The complete pinout and listing is shown in Chapter 6 4.2 Sensor interface STV0680B uses a standard ST digital interface from the sensor, and the sensor clock input is provided by an output from STV0680B. Designing a camera using this chipset should design as close as possible to the reference design (Chapter 6), in which case the chipset can be regarded as a functional ‘black box’, and no further details regarding the STV0680B-sensor interface are required. 4.3 Memory interface STV0680B is designed to interface to an external 16Mbit or 64Mbit SDRAM (see Table 3). The SDRAM device must have a 16 bit wide data bus and operate from a 3.3V supply. Two sizes of SDRAM memory are supported by STV0680B, 16MBits (1M x 16 bits wide) or 64MBits (4M x 16 bits wide), the memory size is auto-detected by STV0680B. STV0680B clocks the SDRAM at 6MHz, typically this is well below the figures offered by most manufacturers’ devices. Devices which are PC66 and/or PC100 compliant are preferred. For interface wiring, see Chapter 6 4.3.1 SDRAM current consumption For maximum system battery life while no pictures are being taken, and to assist in meeting requirements for USB compliance, an SDRAM should be chosen with the lowest possible self refresh current specification. For suggested SDRAM part numbers, see Chapter 6 In addition, the USB suspend mode current specification requires that the camera will consume no greater than 300µA when un-tethered. Meeting this specification, which is included in the requirements for USB compliance, assumes an SDRAM with up to approximately 250µA selfrefresh current, based on a current consumption of approximately 50µA for STV0680B+support circuit. 4.3.2 SDRAM interface timing requirements The following timing diagrams should be referred to when selecting SDRAM other than those recommended in Chapter 6 20/63 Version 3.4 STV0680B + VV6444/6410/6500 tCK tL STV0680B hardware interfaces tH DCLK CKE tCMS tCMH Command ACTIVE A0-9,BA ROW A10 READ NOP PRECHARGE NOP COLUMN ROW tAS tAH tCMS tCMH tOH tAC DQM DQ DOUT M tRCD DOUT M + 1 DOUT M + 2 DOUT M + 3 READ Latency tRC tRAS tRP DQ sample DQ sample DQ sample DQ sample Figure 5 : SDRAM read timing (16Mbit device, burst read) tCK tL tH DCLK CKE tCMS tCMH Command ACTIVE A0-9,BA ROW A10 ROW tAS WRITE NOP PRECHARGE NOP COLUMN tAH tCMS tCMH tDS DQM DQ DIN M DIN M + 1 tDH DIN M + 2 tRCD DIN M + 3 tRC tRAS tRP Figure 6 : SDRAM write timing (16Mbit device, burst write) Version 3.4 21/63 STV0680B hardware interfaces STV0680B + VV6444/6410/6500 Symbol Min. Max Units Symbol Min. tCK 166.45 166.89 ns tDS 81.01 ns tCH ½ tCK tDH 83.41 ns tCL ½ tCK tRCD 1 tCK tCK tRAS 5 tAC ½ Max 5 Units tCK tOH 0 ns tRC 7 tCK tCMS 82.88 ns tRP 2 tCK tCMH 82.85 ns tRCD 1 tCK tAS 82.88 ns tAH 82.76 ns Table 5 : Timing parameters for SDRAM read/write 4.3.3 SDRAM refresh period The SDRAM refresh period from STV0680B is guaranteed to be no greater than 15.6µS during ‘Snapshot’/self-timer/continuous/tethered video modes of operation (i.e. not standby mode). In standby mode, the SDRAM is set to self-refresh, therefore no refresh from STV0680B takes place. 4.3.4 SDRAM initialisation period The SDRAM initialisation period is currently set to 981µS in STV0680B. 4.4 USB interface STV0680B includes a USB Version 1.1 compliant Universal Serial Bus Interface, including a transceiver. This allows direct connection from STV0680B to a USB connector with minimal additional hardware (i.e. a small number of passive discretes) - see Chapter 6 The USB interface interfaces the STV0680B to the USB at full speed 12MHz data rate. Some of the features are: ● Compliant with USB protocol revision 1.1. ● USB protocol handling. ● USB device state handling. ● Clock and data recovery from USB. ● Bit stripping and bit stuffing functions. ● CRC5 checking, CRC16 generation and checking. ● Serial to parallel conversion. ● Single bulk end point. USB drivers are supplied by ST. For USB timing information, please refer to the USB specification V1.1. 22/63 Version 3.4 STV0680B + VV6444/6410/6500 4.5 STV0680B hardware interfaces UART module for RS232 interface The UART module on STV0680B provides a 115200 baud full duplex interface to an external Host. 4.5.1 RS232 physical interface STV0680B does not support direct connection to a serial link. Physical line driver circuitry is required, e.g. using a standard RS232 transceiver chip, or by using a small number of low cost discretes (as shown in Chapter 6). The schematics shown assume a 3 core cable with a length of no greater than 2m. Unscreened cable can be used, a suitable low cost connector is a 3.5mm audio jack plugs/sockets. 4.5.2 UART module overview Receiving data The UART module in STV0680B receives serial data through the RXD pin. Data reception is initiated by a 1-to-0 transition on RXD, and the received data is sampled every 8.66µS. If the RXD input is not 0 when the incoming data is first sampled, the UART module goes back to look for another 1-to-0 transition. This is to provide rejection of false start bits. If the start bit proves valid, reception of the rest of the frame will proceed. Transmitting data When a transmission is activated by STV0680B, the contents of an internal transmit shift register are shifted onto the TXD pin, every 8.66µS. The UART operates at 12MHz, which is not an integer multiple of 115200, so the actual baud rate is 115232 +/- 0.3%, which is well within the requirements of a typical 16x oversampling UART, which can tolerate a 3.75% error in baud rate. 4.6 Power management and battery type STV0680B and the SDRAM require a 3.3V supply. Where a VV6410/6411 or VV6500 (3.3v) sensor is used, a single voltage regulator can be used to regulate the supply for all three components from the battery, or the sensor on-board VReg can be used. Where a VV6444 is used, the sensor requires a 5V supply, hence a DC-DC converter is recommended to provide enough voltage when the camera is powered from the USB bus. These are explained more fully in the reference design. 4.6.1 Power switching to USB Included in the USB compliance requirements, is the ability of the camera to report to the PC when connected to the USB bus, whether or not there is a fresh battery in the camera. This means that power sourcing from USB is required, which also saves on battery life while the camera is used in USB tethered video mode. In order to allow switching from battery to USB power, some additional hardware is required (see also Chapter 6): ● The USBDETECT input to STV0680B is used to detect that a USB power supply is connected ● If the USB is detected, additional hardware is used to switch off the battery ● An inrush protection circuit can protect the USB bus from current draw in the case of a low battery/battery not fitted. This may be necessary to comply with the USB specification. For precise USB compliance requirements, please consult the USB specification version 1.1 4.6.2 Switched sensor supply Dependant on the hardware implementation, the SENSPWR output from STV0680B can be used to power off completely the sensor during Standby mode (in the case of VV6444) or put the sensor Version 3.4 23/63 STV0680B hardware interfaces STV0680B + VV6444/6410/6500 into Suspend mode (in the case of VV6410/6411/6500). This has a significant improvement on battery life. 4.6.3 Battery type This is hardware dependant. The schematics referred to in Chapter 6 assume either three or four 1.5V cells. 4.7 Quartz crystal Regardless of the sensor type or anti-flicker requirements, the sensor + STV0680B chipset operates from a single 12MHz fundamental quartz crystal. For specification requirements, see Table 13. STV0680B includes an on-chip low jitter PLL, for PLL characteristics, see Table 12. 4.8 Numeric LCD interface STV0680B supports a 2-digit LCD panel only, for alpha-numeric display. 4.8.1 LCD types STV0680B connects to a non multiplexed, direct drive LCD with 2 x 7 segments. Many LCD types are compatible with this interface. The LCD refresh frequency is 34.7Hz. 4.8.2 LCD interface pinout The convention for segment numbering is as follows: ’0’ connects to segment ’a’, ’1’ connects to segment ’b’, and so on, where a to g are standard for all 7-segment displays, as well as an LCD common output, giving fifteen signals in total. 4.9 Switches and LED’s The GPIO lines on STV0680B have pre-defined functions as follows, see Section 2.2 for user interface functionality, and Chapter 6 for precise hardware implementation 4.9.1 MODE push button and SHUTTER push button: GPIO0 and GPIO1 Both push button inputs have internal de-bounce circuits, reducing the amount of hardware required externally. It is recommended that labelling is used on the camera casing to help the user understand the functioning of the 2-button interface. 4.9.2 Input to select between 50 and 60Hz flicker frequency: GPIO3 This allows for factory setting of the anti-flicker frequency, dependant on the final country of destination. See also Section 2.6. The polarity of this selection is detailed in the reference design (see Chapter 6). 4.9.3 LED indicator output: GPIO5 The LED output has an 8mA current sinking capability. 4.9.4 Other pins: GPIO2, 4, 6, 7 With STV0680B-001, these pins are un-used and should be tied to GND. 24/63 Version 3.4 STV0680B + VV6444/6410/6500 STV0680B hardware interfaces With STV0680B-003, these pins are used, as detailed in Table 6. GPIO 2 4 6 7 Audio Record No Yes No No Audio Playback No No Yes No Flashgun Yes No No Yes Table 6 : Other GPIO usage with STV0680-003 Their specific functions are detailed in the reference design and in the following documents available from ST: 4.9.5 ● Audio: Application note AN1310 ● Flashgun: Application note AN1312 Audio record hardware interface (STV0680B-003 only) The firmware implements a successive approximation A/D conversion by outputting successive analogue levels through the DAC output, which are compared with the actual signal level (output from the sensor microphone preamplifier), and the resultant high or low signal from the comparator is read at GPIO4. The sampling frequency is 11kHz, and the successive approximation is done at 8 bits resolution per sample. It is not possible to speed up the sampling frequency due to the limitation of STV0680B firmware speed. An actual hardware implementation is given in the audio application note AN1310. 4.9.6 Audio playback hardware interface (STV0680B-003 only) The firmware outputs the desired signal level through the DAC output, which is amplified to the speaker or headphone socket. GPIO6 is used to switch off the amplifier during periods of audio recording, to prevent the successive approximation waveform from being heard during periods of recording, and to reduce the power consumption and unwanted crackle through the speaker. An actual hardware implementation is given in the audio application note AN1310. 4.10 Flashgun hardware interface (STV0680B-003 only) STV0680B-003 will revert to flashgun exposure when it detects GPIO2 is high. Ideally the hardware should combine the two factors of (a) user intention (e.g. user switches on flashgun) and (b) charge sensing (i.e. flash is charged up and ready to fire). These two factors (a) and (b) are independent, since there may be a delay of several seconds between switching on the flashgun charger, and the flashgun being able to fire. To revert to flashgun exposure before the flashgun is completely charged up would cause very bad pictures to be taken in low light conditions because there is no “low light” threshold when flashgun exposure is enabled, since the camera expects a flash to fire. A suggested flashgun hardware interface is given in the flashgun application note AN1312. When flashgun exposure is enabled and the shutter button is pressed, a picture will be taken and the flash trigger pin GPIO7 will be pulsed low at the correct point in time so that all lines of the CMOS imager are exposed. 4.11 IR filter An Infra-Red Blocking Filter is required to achieve correct colour response. The exact specification for the IR filter characteristics are given in the reference design manual. Version 3.4 25/63 Software support 5 Software support 5.1 General features STV0680B + VV6444/6410/6500 The chipset is a dual-mode camera, i.e. stills and video, and is supported by a range of demonstration software, standard drivers, and software development options. Driver software is available to support both USB and RS232 interface including standard TWAIN and video for Windows drivers (VfW through USB only) for Win98/Win2k/WinME. Quicktime drivers and a Photoshop stills plug in for MacOS 8.6/9.0/9.1 are also supported. Example software applications (PC only) are provided to create .AVI video files from untethered continuous capture of images (AVICreator), to upload still images and recorded sounds (LCDCdemo) and to download .WAV files from the PC to the camera (CustomSound). In each case, PC source code is provided to assist in OEM software development using the SDK. ST colour processing and defect detection/correction software runs on the host and is supplied under licence agreement, as part of all host software/drivers/SDK. 5.1.1 Still image upload This is available through demonstration software, OEM custom software, or using standard TWAIN applications. Features include: ● Fast upload through USB, or upload through RS232. ● Colour display of image thumbnails for picture selection. ● Download of full image once selected by user software. ● Automatic detection and correction of sensor defects ● Colour processing of full image, using the ST colour process The above features also apply to “AVI Creator” or any OEM custom software for AVI video creation from pictures taken while un-tethered, since this is essentially a “stills” function. 5.1.2 Streaming video (only while tethered to USB) This is available through demonstration software, or using standard VfW applications. Features include: 5.2 ● Streaming video through standard VfW driver ● Automatic detection and correction of sensor defects ● Colour processing of full image, using the ST colour process Software installation The following software support is only available to OEMs. Access to the latest installation files is possible through a password-protected web page, contact ST for details. The install file gives the option to install: 26/63 ● Drivers (always check web site for latest driver version). ● EVK software, i.e. LCDCdemo.exe and AVIcreator.exe, G2Video.exe, and CTItest2.exe ● SDK installation: source code for sample applications, and documentation Version 3.4 STV0680B + VV6444/6410/6500 5.2.1 Software support Driver support available Interface type: RS232 USB PC Operating system: Win9x, WinNT4, Win2k, Windows Millennium Win98 and Win2k only, Windows millenium Mac OS N/A 8.6, 9.0, 9.1 TWAIN TWAIN, VfW STV0680B-001 STV0680B-003 Table 7 : Driver choices 5.2.2 EVK software Note: The following is also supplied with evaluation kits/demonstration units, but all the following software is only for demonstration purposes and should NOT be supplied as an end-user product. However, application-level source code (i.e. not driver/colour processing source) for LCDCdemo.exe, AVI creator, and CTItest.exe is available as part of the SDK, which allows similar applications to be built by the software developer: 5.2.3 1 Simple demonstration software LCDCdemo.exe for uploading thumbnails and images. 2 AVIcreator.exe software for uploading continuous images for creating ‘movie’ clips. 3 G2Video.exe is a VfW application which shows streaming video while tethered to USB and allows creation of.AVI video clips. 4 CTItest.exe is only for debugging purposes, for software developers using the SDK Software Development Kit (SDK) and source code A software development kit allows the OEM to develop a custom application which calls the same range of drivers as listed in Section 5.2.1, hence allowing the OEM application to perform picture download, thumbnail display, and colour processing using the ST colour process. Inclusion of source code for the applications listed in Section 5.2.2 allows the software developer to use these as the basis for their own application. The SDK is supplied by ST as a 32-bit DLL format, running on Windows 98/Win2K TM, and accessed through a documented software interface. Development requires Microsoft Visual Studio Ver. 6 or later. This provides the basis for developing a custom software application for stills. Note: Source code for PC Drivers, Defect Correction, and Colour Processing algorithms are not available. Version 3.4 27/63 Detailed chipset specifications STV0680B + VV6444/6410/6500 6 Detailed chipset specifications 6.1 Typical camera specifications The following data assumes that the camera has been built according to reference design shown in Chapter 6 Supply Voltage 4.1-6V (when powered from battery or USB) Operating Temperature range 0oC - 40oC Max. RS232 cable length supported 2m CIF output 352 x 288 pixels QCIF output 176 x 144 pixels VGA output (using VV6500) 640 x 480 pixels QVGA output (using VV6500) 320 x 240 pixels SDRAM storage and image upload format Raw Bayer PC driver output format Colour RGB bitmap Table 8 : Typical camera specifications Note: 1 Dual USB or battery power supply is only possible when the required power switching hardware is included, as shown in Chapter 6 2 Figures are approximate and depend on actual components sources. Sensor Min. Max VV6444 8.18µS 39mS VV6410/6411 8.67µS 44mS VV6500 7.94µS 66mS Table 9 : Approximate shutter speeds 28/63 Version 3.4 STV0680B + VV6444/6410/6500 6.2 Detailed chipset specifications STV0680B companion processor Parameter Supply voltage Min. Typ. Max. Units 3.0 3.3 3.6 V 20 - mA Current consumption (normal operation) Stand-by current consumption (untethered standby or tethered PC suspend mode) - - 5 µA Operating temperature range 0 - 70 °C Package 100QFP Exposure control 1 000 000 : 1 Storage Temperature (Approximate) oC 50 to 150 Table 10 : STV0680B specifications Parameter Description Min. Typ Max Units VDD Power Supply 3.0 3.3 3.6 V VILU USB differential pad D+/D- input low 0.8 V VIHU USB differential pad D+/D- input high (driven) 2.0 VIHUZ USB differential pad D+/D- input high (floating) 2.7 VDI USB differential pad D+/D- input sensitivity 0.2 VCM USB differential pad D+/D- common mode voltage 0.8 VOLU USB differential pad D+/D- output low voltage VOHU Notes V 3.6 V V 1 2.5 V 2 0.0 0.3 V USB differential pad D+/D- output high voltage 2.8 3.6 V VCRS USB differential pad D+/D- output signal cross over voltage 1.3 2.0 V RPU USB differential pad D+/D- pull up resistor 1.425 1.575 kΩ RPD USB differential pad D+/D- pull-down resistor 14.25 15.75 kΩ TFR Rise Time 4 20 ns TFF Fall Time 4 20 ns TFRFM Differential Rise Time and Fall Time Matching 90 111.11 % 3 ZDRV Driver Output Resistance 28 44 Ohms 4 Table 11 : STV0680B USB specifications Note: 1 VDI = |(D+) - (D-)| 2 VCM includes VDI range. 3 TFRFM =(TFR / TFF). Version 3.4 29/63 Detailed chipset specifications STV0680B + VV6444/6410/6500 4 ZDRV includes an external resistor of 20 Ohms serial to this transceiver. Parameter Conditions Peak to peak jitters @VCOfreq = 100MHz ~ 200MHz Duty cycle Operating voltage range Symbol Min. Typ Max Unit -- -- 170 220 ps -- 40 50 60 % VDD 3 3.3 3.6 V Input low voltage VDD=3.3V VIL - 0.8 V Input high voltage VDD=3.3V VIH 0.7VDD VDD V Ready -- -- 0.5 ms Tsr(Fout) -- 0.100+0.1082*CL -- ns pull in Time + Locking Time Output Slew Rate CL: Output Load (pF) Table 12 : STV0680B PLL characteristics Parameter Min. Typ Crystal specification Max Units 50/50/10/30 (12 MHz fundamental) Crystal frequency 12.000 MHz Frequency tolerance 50 ppm Temperature stability 50 ppm Operating temperature -10 Deg. C Load capacitance 30 pF Table 13 : STV0680B crystal tolerance 6.3 VV6444 sensor This has been superseded by VV6410/6411 Colour Image Format 352 x 288 pixels (CIF) Pixel Size 12.0 x 11.0µm Image array size 4.272mm x 3.212mm Array Format CIF Sensor signal / Noise ratio Approx. 48dB (* See Note 1) Supply Voltage 5.0V DC +/-5% Table 14 : VV6444 specifications Note: 1 48dB refers to VV6404. With the addition of microlenses on VV6444, an increase in sensitivity can be expected. 2 Where the sensor is completely powered off by a FET or switch (external hardware) during the Standby/PC Suspend Mode. 3 Where the FET/switcher is not implemented, and the sensor is powered throughout Standby/PC Suspend Mode, however the sensor clock is disabled. 30/63 Version 3.4 STV0680B + VV6444/6410/6500 Detailed chipset specifications Package type 48LCC Operating Temp. range 0oC - 40oC Current consumption Min. ’Snapshot’/self-timer/continuous/tethered video modes of operation Typ Max Units 30 mA Stand-by/PC Suspend Mode, sensor powered off (see Note 2) Negligible µA Stand-by/PC Suspend Mode, sensor powered on (See Note 3) Approx. 300 µA Table 14 : VV6444 specifications Note: 1 48dB refers to VV6404. With the addition of microlenses on VV6444, an increase in sensitivity can be expected. 2 Where the sensor is completely powered off by a FET or switch (external hardware) during the Standby/PC Suspend Mode. 3 Where the FET/switcher is not implemented, and the sensor is powered throughout Standby/PC Suspend Mode, however the sensor clock is disabled. Version 3.4 31/63 Detailed chipset specifications 6.4 STV0680B + VV6444/6410/6500 VV6410/6411 and VV6500 sensors Colour Image Format 352 x 288 pixels (CIF) Pixel Size 7.5 x 6.9µm Image array size 2.67mm x 2.04mm Array Format CIF Sensor signal / Noise ratio Approx. 57dB Package type 36LCC (VV6410) TBD (VV6411) Supply Voltage 3.3V DC +/-5% Operating Temp. range 0oC - 40oC Current consumption Min. Typ Max. Units ’Snapshot’/self-timer/continuous/tethered video modes of operation 25 40 mA Stand-by Mode/PC Suspend Mode <70 100 µA Table 15 : VV6410/6411 specifications Colour Image Format 640 x 480 pixels (VGA) Pixel Size 7.5 x 7.5µm Image array size 4.89mm x 3.66mm Array Format VGA Sensor signal / Noise ratio Approx. 57dB Supply Voltage 3.3V DC +/-5% Package type 48LCC Operating Temp. range 0oC - 40oC Current consumption Min. Typ Max Units ’Snapshot’/self-timer/continuous/tethered video modes of operation 30 50 mA Standby Mode/PC Suspend Mode, SUSPEND pin asserted (see Note 1) <100 150 µA Standby Mode/PC Suspend Mode, SUSPEND pin not asserted (see Note 2) <200 200 µA Table 16 : VV6500 specifications Note: 1 Assuming appropriate external hardware recommendations are implemented (see Chapter 6), the sensor SUSPEND pin is asserted during Standby Mode/PC Suspend Mode. Hence the sensor is placed in Sensor Suspend mode by means of (a) a Serial interface message and (b) the SUSPEND pin being asserted. 2 Where the external hardware does not permit the sensor SUSPEND pin to be asserted (during Standby Mode/PC Suspend Mode, the sensor is placed in Sensor Suspend mode by means of a Serial interface message only. This increases current consumption due to a pull-up on the SUSPEND pin. This only applies to VV6500. 32/63 Version 3.4 STV0680B + VV6444/6410/6500 6.5 Detailed chipset specifications Typical current consumption of complete camera The following data assumes that the camera has been built according to reference design referred to in Chapter 6 Figures are approximate and depend on actual components sources - see notes. 6.5.1 Using VV6444 (sensor operates at @ 5V DC) Mode Typical Current Cons. Comments ’Snapshot’/Continuous/Self timer mode (while un-teth- 80mA ered) ’Snapshot’/Continuous/Self timer mode (while tethered 80mA to PC) Camera stand-by mode (when NOT connected to USB) Assuming appropriate hardware included, power is sourced from PC while USB connected. Total current in this mode equals: Approx. 220µA + SDRAM STV0680/680A Standby current consumption (see Note 1) self-refresh current (see + SDRAM self-refresh current (see Note 2) Note 2) + peripheral circuitry (approx. 50µA, see Note 3). Total current in this mode equals: STV0680/680A Standby current consumption (see Note 1) Suspend mode (when connected to USB) Approx. 80µA + SDRAM self-refresh current (see Note 2) + SDRAM self-refresh current (see Note 2) + peripheral circuitry (approx. 50µA, see Note 3). + 200µA, based on 1.5k pull-up in camera (see Section 4) and 15k pull-down in PC. Table 17 : Current consumption, complete STV0680B+VV6444 camera Note: 1 See Table 10 fin Section 6.2 2 From limited evaluation, typical self-refresh current figures of certain SDRAM chips are well below manufacturers’ maximum specification, e.g. 100-250µA. See Section 4 for recommendations. 3 This is assuming a low quiescent current 3v3 VReg is used, and assuming that the sensor is switched off using external circuitry. Version 3.4 33/63 Detailed chipset specifications 6.5.2 STV0680B + VV6444/6410/6500 Using VV6410/6411/6500 (sensor operates at @ 3.3V DC) Mode Typical ’Snapshot’/Continuous/ Self timer mode (while un-tethered) 60mA ’Snapshot’/Continuous/ Self timer mode (while tethered to PC) 60mA While playing back audio sounds through speaker 90mA Standby Mode (when NOT connected to USB): Sensor SUSPEND pin asserted (see Note 4) Approx. 220µA + SDRAM self-refresh current (see Note 2) + sensor suspend mode current (see Note 3) Comments Assuming appropriate hardware included, power is sourced from PC while USB connected. Assuming 8Ω speaker as explained in application note AN1310 Total current in this mode equals: STV0680B Standby current consumption (see Note 1) + SDRAM self-refresh current (see Note 2) + peripheral circuitry (approx. 50µA). + Sensor suspend mode current (See Note 3) PC Suspend mode Approx. 50µA + SDRAM (when connected to USB): self-refresh current (see Note 2) + sensor Sensor SUSPEND pin suspend mode current asserted (see Note 4) (see Note 3) Total current in this mode equals: STV0680B Standby current consumption (see Note 1) +SDRAM self-refresh current (see Note 2) + peripheral circuitry (approx. 50µA). + 200µA, based on 1.5k pull-up in camera (see Chapter 6) and 15k pull-down in PC. + Sensor suspend mode current (See Note 3) Standby Mode (when NOT Approx. 220µA + SDRAM connected to USB): sensor self-refresh current powered off using FET (see Note 2) (see Note 5) STV0680B Standby current consumption (see Note 1) PC Suspend mode (when Approx. 100µA + SDRAM connected to USB): sensor self-refresh current (see Note 2) powered off using FET (see Note 5) STV0680B Standby current consumption (see Note 1) Total current in this mode equals: + SDRAM self-refresh current (see Note 2) + peripheral circuitry (approx. 50µA). Total current in this mode equals: +SDRAM self-refresh current (see Note 2) + peripheral circuitry (approx. 50µA). Table 18 : Current consumption, complete STV0680B+VV6410/6411/6500 camera Note: 1 See Table 10 fin Section 6.2. 2 From limited evaluation, typical self-refresh current figures of certain SDRAM chips are well below manufacturers’ maximum specification, e.g. 100-250µA. See Section 4 for recommendations. 3 Sensor suspend mode current <100µA (needs SUSPEND pin asserted with VV6500), see Table 15 and Table 16. 4 If the appropriate hardware to assert the sensor SUSPEND pin is not fitted, an additional current consumption in Standby/PC Suspend mode of Approx. 50µA can be expected with VV6500. 5 Option included in reference design to save current consumption, which can increase battery life and increase chances of meeting USB suspend mode compliance requirements. 34/63 Version 3.4 STV0680B+ VV6410/6411/6500 STV0680 Camera System Defect Specification 7 STV0680 Camera System Defect Specification Note: The information in this chapter is subject to change without notice. Contact ST for precise details and information on correct driver versions. 7.1 General ST CMOS Sensors can contain defects as part of their standard sales specification. The sensor defect specification, if required, can be found in the appropriate sensor datasheet, however this specification is not the same as the camera system defect specification. When an ST CMOS Sensor is used in a STV0680B camera system, a defect correction algorithm in the camera system will correct the sensor defects so that in the vast majority of cases the user should not see defects in the final colour image generated by the PC/Mac driver. This chapter clarifies the defect specification for the overall camera system. 7.2 Defect specification When using the specified Camera System, under the specified Test Conditions: 7.2.1 1 No Major Visible defects are allowed in the Final Colour Image from a CIF camera (VV6410/ 6411/6444) or VGA Camera (using VV6500 shipped by ST until end of Q1 2001), except under certain limitations given in Section 7.2.1 and Section 7.3.7. 2 No Major Visible defects are allowed in the "Inner area" (within the central 242 x 322 pixels) of the Final Colour Image from a VGA camera (VV6500 shipped by ST after start of Q2 2001), except under certain limitations given in Section 7.2.1 and Section 7.3.7. 3 Some Minor Visible defects are allowed in the "Outer area" (outside the central 242 x 322 pixels) of the Final Colour Image from a VGA camera (VV6500 shipped by ST after start of Q2 2001), but no Major Visible Defects are allowed in the "Outer area", except under certain limitations given in Section 7.2.1 and Section 7.3.7. Appearance of defects under other conditions During normal camera use (e.g. lensed camera used in a “real situation”), it is possible that defects may be visible under certain conditions: ● 7.3 At the sharp edge of certain light/dark transitions Definition of the "Camera System" All of the following conditions must be met for the defect specification to be applicable to the "Camera System". Note that the EVK units STV-DCA/CIF-E01 or -E04 and STV-VGA/VGA-E01 or -E04 both conform to these conditions, hence have the same defect specification as detailed in Section 7.2. 7.3.1 CMOS Imaging Sensor The defect specification applies to the Camera System if any of the following sensors are used. ● VV6444-C001 ● VV6410-C036 ● VV6411-C036 Version 3.4 35/63 STV0680 Camera System Defect Specification ● 7.3.2 STV0680B+ VV6410/6411/6500 VV6500-C001 Companion ASIC The defect specification applies to the Camera System, if any of the following companion ASICs are used, subject to the firmware notes shown in Section 7.3.3: 7.3.3 ● STV0680 ● STV0680A ● STV0680B Companion ASIC Firmware: Only standard firmware sold by ST is covered by this defect specification. Any OEM modification of companion ASIC firmware through the STV0680 FDK means that this defect spec does not apply. Devices containing standard firmware are sold under the following order codes: 7.3.4 ● STV0680-001 ● STV0680A-002 ● STV0680B-001 ● STV0680B-003 Camera Hardware Camera built according to the ST Imaging Division Reference Design, including any of the options shown. 7.3.5 Host Interface USB or RS232 interfaces can be used. 7.3.6 Host Operating System ● PC running Windows 98, Windows 2k, Windows ME, or Mac running Mac OS 8.6 or above. ● PC Drivers with VV6444/6410 and VV6500 until end Q1 2001: Version 1.00 or above. ● 7.3.7 PC Drivers with all sensors, including VV6500 shipped after start of Q2 2001: Version 1.14 or above. PC Software: ● ● ● Standard TWAIN Interface (PC) or Photoshop compatible plug-in (Mac) LCDCdemo.exe (see note 1), AVICreator.exe, or other OEM application generated through SDK (see note 1). Any VfW Application (see note 2) on PC or Quicktime application on Mac. Notes on non-default software settings: Note: 1 With the "Greyscale" checkbox enabled in LCDCdemo.exe, uploading a full resolution image by double clicking on the image thumbnail will produce a raw “Bayer” image which can include defects. The "Greyscale" facility is intended for OEM debug purposes only, and cannot be regarded as a “final colour image”. 2 When running any VfW application, the Source->Advanced->Anti-Speckle function can be used to enable/disable defect correction and select the correct method of defect correction in the final colour image. Hence it is possible to see defects when the "Anti Speckle" checkbox is cleared, or when the anti-speckle filter does not match the sensor type. 36/63 Version 3.4 STV0680B+ VV6410/6411/6500 STV0680 Camera System Defect Specification ● Sensors VV6410/6411/6444 and VV6500 shipped before end Q1 2001 require Anti-speckle 1 ● Sensors VV6500 shipped after start Q2 2001 require Anti-speckle 2 7.4 Definition of the "Test Conditions" 7.4.1 Optics 7.4.2 ● No Lens or IR filter ● No dirt on sensor glass Illumination and uniformity of scene No lens should be used. The intensity of required illumination and the uniformity of the scene can be defined thus. A defect-free image should give a luminosity histogramme (8 bits resolution) with the following statistics: 7.5 1 Mean: (45% of full scale) < Mean < (65% of full scale). Ideal luminosity (mid grey) = 50-60% of full scale. 2 Standard Deviation: Standard Deviation < 10. Definition of a "Major Visible Defect" Anything which is visible with the naked eye under the conditions described, is worthy of further investigation. For example: Version 3.4 37/63 STV0680 Camera System Defect Specification STV0680B+ VV6410/6411/6500 Figure 7 : No “Visible” defects Figure 8 : Histogram of No “Visible” defects; Mean = 139; Minimum = 90 Defect 38/63 Version 3.4 STV0680B+ VV6410/6411/6500 STV0680 Camera System Defect Specification Figure 9 : “Visible” defect Minimum Figure 10 : Histogram of image with “Visible” defect; Mean = 145; Minimum = 0 7.6 Definition of the "Final Colour Image" This means the Bitmap (.bmp) image displayed by the PC software as described in Section 7.3.7. 7.7 Definition of a “Minor Visible Defect” Please refer to sensor datasheet. Version 3.4 39/63 STV0680B pinout information and package dimensions STV0680B+ VV6410/6411/6500 8 STV0680B pinout information and package dimensions 8.1 STV0680B pinout Pin no. Signal Type Description Drive Sensor Interface 69 SENSPWR Output, active high Power-up Sensor 2mA (SL) 68 SENSRST Output, active low Reset Sensor 2mA (SL) 60 SCL Input/Output (OD,T) Sensor serial interface 4mA (SL) 61 SDA Input/Output (OD,T) Sensor serial interface 4mA (SL) 62 SD3 Input (S,T) Sensor data 63 SD2 Input (S,T) Sensor data 64 SD1 Input (S,T) Sensor data 65 SD0 Input (S,T) Sensor data 66 QCLK Input (S,T) Qualification clock from sensor 67 SCLKO Output Clock output to sensor 4mA Debounced input Push button (Wake-up/Mode) 8mA (SL) Debounced input Push button (Shutter/Confirm) 8mA (SL) GPIO (see notes) 77 76 GPIO0 (MODE) GPIO1 (SHUTTER) 75 GPIO2 (FL-EN) IO (OD) Flash enable input (Note 3) 8mA (SL) 74 GPIO3 (50/60) Debounced input Link to select between 50Hz and 60Hz lighting 8mA (SL) 73 GPIO4 (AUD-COMP) IO (OD) Audio comparator input (Note 3) 8mA (SL) 72 GPIO5 Output (OD) LED indicator 8mA (SL) 71 GPIO6 (AMP-EN) IO (OD) Audio Amp enable (Note 3) 8mA (SL) 70 GPIO7 (FL-TRIG) IO (OD) Flash trigger (Active Low) ( Note 3) 8mA (SL) Table 19 : STV0680B Pin listing 40/63 Version 3.4 STV0680B+ VV6410/6411/6500 Pin no. Signal STV0680B pinout information and package dimensions Type Description Drive USB Interface Detect Power source from USB. 42 USBDETECT Input (S) (For camera with RS232 only, this pin should be tied to GND) USB bus 43 DATA+ Input/Output (For camera with RS232 only, this pin should be connected to test points to allow for USB production test (lens focussing)) USB bus. 44 DATA- Input/Output USB specific ation V1.1 complia nt I/O (For camera with RS232 only, this pin should be connected to test points to allow for USB production test (lens focussing)) RS232 Interface Serial data transmit 58 TXD Output (For camera with USB only, this pin should be tied to RXD) Serial data receive 59 RXD Input (S) 4mA (SL) (For camera with USB only, this pin should be tied to TXD) STV0680B Master Clocks and Reset 48 XIN Input Quartz Crystal IN 49 XOUT Output Quartz Crystal OUT 51 RESET Input (S) Active (LOW) STV0680B reset System Memory (SDRAM) Interface 20 DQMU Output Data input/output mask for dram_DQ[15:8] 2mA (SL) 22 DCLK Output Clock: all SDRAM input signals are sampled on the positive edge 4mA 24 CKE Output Clock enable: activates (HIGH) and deactivates (LOW) the SDRAM CLK signal 2mA (SL) 28 AD11 Output SDRAM address A11 for 64M SDRAM or BA for 16M SDRAM 2mA (SL) 31 AD9 Output SDRAM address A9 2mA (SL) 33 AD8 Output SDRAM address A8 2mA (SL) 35 AD7 Output SDRAM address A7 2mA (SL) 37 AD6 Output SDRAM address A6 2mA (SL) 39 AD5 Output SDRAM address A5 2mA (SL) Table 19 : STV0680B Pin listing Version 3.4 41/63 STV0680B pinout information and package dimensions STV0680B+ VV6410/6411/6500 Pin no. Signal Type Description Drive 41 AD4 Output SDRAM address A4 2mA (SL) 40 AD3 Output SDRAM address A3 2mA (SL) 38 AD2 Output SDRAM address A2 2mA (SL) 36 AD1 Output SDRAM address A1 2mA (SL) 34 AD0 Output SDRAM address A0 2mA (SL) 32 AD10 Output SDRAM address A10 2mA (SL) 26 AD12 Output SDRAM address A12, BA0 for 64M SDRAM, unused on 16M 2mA (SL) 30 AD13 Output SDRAM address A13, BA1 for 64M SDRAM, unused on 16M 2mA (SL) 25 CS Output, active low Chip select: enables (registered LOW) and disables (registered HIGH) the SDRAM command decoder. 2mA (SL) 23 RAS Output, active low SDRAM row address strobe command 2mA (SL) 21 CAS Output, active low SDRAM column address strobe command 2mA (SL) 19 WE Output, active low SDRAM write enable command 2mA (SL) 18 DQML Output Data input/output mask for dram_DQ[7:0] 2mA (SL) 16 DQ7 Input/Output SDRAM Data Bus 2mA (SL) 14 DQ6 Input/Output SDRAM Data Bus 2mA (SL) 12 DQ5 Input/Output SDRAM Data Bus 2mA (SL) 10 DQ4 Input/Output SDRAM Data Bus 2mA (SL) 8 DQ3 Input/Output SDRAM Data Bus 2mA (SL) 6 DQ2 Input/Output SDRAM Data Bus 2mA (SL) 4 DQ1 Input/Output SDRAM Data Bus 2mA (SL) Table 19 : STV0680B Pin listing 42/63 Version 3.4 STV0680B+ VV6410/6411/6500 STV0680B pinout information and package dimensions Pin no. Signal Type Description Drive 100 DQ0 Input/Output SDRAM Data Bus 2mA (SL) 2 DQ15 Input/Output SDRAM Data Bus 2mA (SL) 5 DQ14 Input/Output SDRAM Data Bus 2mA (SL) 7 DQ13 Input/Output SDRAM Data Bus 2mA (SL) 9 DQ12 Input/Output SDRAM Data Bus 2mA (SL) 11 DQ11 Input/Output SDRAM Data Bus 2mA (SL) 13 DQ10 Input/Output SDRAM Data bus 2mA (SL) 15 DQ9 Input/Output SDRAM Data bus 2mA (SL) 17 DQ8 Input/Output SDRAM Data bus 2mA (SL) LCD Interface 85 LCDCOM Output LCD Common 2mA (SL) 93 LCD1_6 Output LCD digit 1 segment G 2mA (SL) 94 LCD1_5 Output LCD digit 1 segment F 2mA (SL) 95 LCD1_4 Output LCD digit 1 segment E 2mA (SL) 96 LCD1_3 Output LCD digit 1 segment D 2mA (SL) 97 LCD1_2 Output LCD digit 1 segment C 2mA (SL) 98 LCD1_1 Output LCD digit 1 segment B 2mA (SL) 99 LCD1_0 Output LCD digit 1 segment A 2mA (SL) 86 LCD2_6 Output LCD digit 2 segment G 2mA (SL) 87 LCD2_5 Output LCD digit 2 segment F 2mA (SL) 88 LCD2_4 Output LCD digit 2segment E 2mA (SL) 89 LCD2_3 Output LCD digit 2segment D 2mA (SL) Table 19 : STV0680B Pin listing Version 3.4 43/63 STV0680B pinout information and package dimensions STV0680B+ VV6410/6411/6500 Pin no. Signal Type Description Drive 90 LCD2_2 Output LCD digit 2segment C 2mA (SL) 91 LCD2_1 Output LCD digit 2 segment B 2mA (SL) 92 LCD2_0 Output LCD digit 2 segment A 2mA (SL) Output Direct connection to piezo buzzer 8mA (SL) Piezo Interface 84 PIEZO Battery Level Comparator Interface 80 LO_BAT Input (A) Battery level comparator input. The voltage on rowboat is compared to the reference to determine the battery status 79 LO_BAT_REF Input (A) 1.22V battery level comparator reference input Power and Ground 1, 27, 50, 56, 78 DVSS[1-5] Power pin Digital Ground 3, 29, 57, 83 DVDD[1-4] Power pin Digital Power 52 PLLGVDD Power pin PLL Guard Power 53 PLLGVSS Power pin PLL Guard Ground 54 PLLAVDD Power pin PLL Analogue Power 55 PLLAVSS Power pin PLL Analogue Ground Non-user pins 45 TEST0 Input Non-user pin - connect to 3V3 46 TEST1 Input Non-user pin - connect to 3V3 47 TEST2 Input Non-user pin - connect to 3V3 Audio DAC 81 DACRES I(A) DAC bias amplifier reference input. See Note 2. 82 DACOUT O (A) 8-bit DAC current source output. See Note 2. Table 19 : STV0680B Pin listing 44/63 Version 3.4 0-10mA STV0680B+ VV6410/6411/6500 STV0680B pinout information and package dimensions Key SL slew rate limited output OD open drain output S Schmidt input A Analogue input/output T 5V tolerant pad (these pads do not have diode protection) Note: 1 GPIO are not ‘general purpose’, in the sense that their function is predetermined (e.g. GPIO0 = MODE, GPIO2 is Unused), dependant on the STV0680B firmware. 2 Audio implementation is shown in an Applications Note available from ST. 3 Only with STV0680B-003. With STV0680B-001, tie low. 4 GPIO2, 4, 6, 7 MUST be tied low with STV0680B-003 where no Audio/Flashgun functionality is required. Version 3.4 45/63 STV0680B pinout information and package dimensions STV0680B pin description 100 99 98 97 96 95 94 93 92 91 90 89 88 87 86 85 84 83 82 81 DQ0 LCD1_a LCD1_b LCD1_c LCD1_d LCD1_e LCD1_f LCD1_g LCD2_a LCD2_b LCD2_c LCD2_d LCD2_e LCD2_f LCD2_g LCDCOM PIEZO DVDD4 DACOUT DACRES 8.2 STV0680B+ VV6410/6411/6500 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 STV0680B 100QFP 80 79 78 77 76 75 74 73 72 71 70 69 68 67 66 65 64 63 62 61 60 59 58 57 56 55 54 53 52 51 AD9 AD10 AD8 AD0 AD7 AD1 AD6 AD2 AD5 AD3 AD4 USBDETECT DATA+ DATATEST0 TEST1 TEST2 XIN XOUT DVSS3 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 DVSS1 DQ15 DVDD1 DQ1 DQ14 DQ2 DQ13 DQ3 DQ12 DQ4 DQ11 DQ5 DQ10 DQ6 DQ9 DQ7 DQ8 DQML WE DQMU CAS DCLK RAS CKE CS AD12 DVSS2 AD11 DVDD2 AD13 Figure 11 : STV0680B pinout in 100QFP package 46/63 Version 3.4 LO_BAT LO_BAT_REF DVSS5 GPIO0 (MODE) GPIO1 (SHUTTER) GPIO2 (FL-EN) GPIO3 (50/60) GPIO4 (AUD-COMP) GPIO5 (LED) GPIO6 (AMP_EN) GPIO7 (FL-TRIG) SENSPWR SENSRST SCLKO QCLK SD0 SD1 SD2 SD3 SDA SCL RXD TXD DVDD3 DVSS4 PLLAVSS PLLAVDD PLLGVSS PLLGVDD RESET STV0680B+ VV6410/6411/6500 STV0680B pinout information and package dimensions 8.3 STV0680B package dimensions Note: Pin pitch is 0.65mm Version 3.4 47/63 VV6410/6411 pinout information and package dimensions STV0680B + VV6410/6411/6500 D[0] NC NC SRAMVSS OEB SCL VV6410/6411 pinout RESETB 9.1 VSScore VV6410/6411 pinout information and package dimensions VSSio 9 23 22 21 20 19 18 17 16 15 14 D[1] 24 D[2] 25 13 PORB D[3] 26 12 SUSPEND D[4] 27 11 Vid3V3 LST/D[5] 28 10 AVSS FST/D[6] 29 9 VDDhi CLKI 30 8 NC D[7] 31 7 NC QCK 32 6 AoutN SDA VV6410/6411 Vbase Vbus 2 3 4 5 AoutP VDDcore/ Reg3V3 1 AIN 36 Aud3V3 35 NC 34 VBG 33 VDDio 36LCC Figure 12 : 36 pin LCC package pin assignment 48/63 Version 3.4 STV0680B + VV6410/6411/6500 9.2 VV6410/6411 pinout information and package dimensions VV6410/6411 pin description Name Pin Number Type Description Power supplies AVSS 10 GND Core analogue ground and reference supplies. SRAMVSS 17 GND In-column SRAM analogue ground. VDDcore/ Reg3V3 34 PWR Digital logic power. VDDio 33 PWR Digital pad ring power. VSScore 22 GND Digital logic ground. VSSio 23 GND Digital pad ring ground. Analogue signals VBG 1 OA Internally generated bandgap reference voltage 1.22V AIN 4 IA Analogue input to Audio Amplifier AOutP 5 OA Analogue output of Audio Amplifier (positive) AOutN 6 OA Analogue output of Audio Amplifier (negative) VDDHI 9 IA Incoming power supply 4 -> 6V VBase 35 OA Drive for base of external bipolar Vbus 36 IA Incoming power supply 3.3 -> 6V Aud3V3 3 OA On-chip Audio Amplifier Voltage Regulator Output Vid3V3 11 OA On-chip Video Supply Voltage Regulator Output PORB 13 OD Power-on Reset (Bar) Output. ODT Tri-stateable 5-wire output data bus. Digital video interface D[4] 27 D[3] 26 - D[4] is the most significant bit. D[2] 25 - D[4:0] have programmable drive strengths 2, 4 and 6 mA D[1] 24 D[0] 20 QCK 32 ODT Tri-stateable data qualification clock. LST/D[5] 28 ODT Tri-stateable Line start output May be configured as tri-stateable output data bit 5 D[5]. FST/D[6] 29 ODT Tri-stateable Frame start signal. May be configured as tri-stateable output data bit 6 D[6]. D[7] 31 ODT Tri-stateable Data wire (ms data bit). May be configured as tri-stateable output data bit 6 D[6]. OEB 16 ID↓ Digital output (tri-state) enable. Table 20 : VV6410 pin description Version 3.4 49/63 VV6410/6411 pinout information and package dimensions Name Pin Number STV0680B + VV6410/6411/6500 Type Description Digital control signals RESETB 21 ID↑ System Reset. Active Low. May be configured as System Sync. Active Low. SUSPEND 12 ID↑ USB Suspend Mode Control signal. Active High If this feature is not required then the support circuit must pull the pin to ground. The combination of an active high signal and pull up pad was chosen to limit current drawn by the device while in suspend mode. Serial interface SCL 15 BI↑ Serial bus clock (input only). SDA 14 BI↑ Serial bus data (bidirectional, open drain). ID↓ Schmitt Buffered Clock input or LVDS positive Clock input System clocks CLKI 30 Not connected NC 2, 7, 8, 18, 19 Not connected Table 20 : VV6410 pin description Key A Analogue Input D Digital Input OA Analogue Output ID↑ Digital input with internal pull-up BI Bidirectional ID↓ Digital input with internal pull-down BI↑ Bidirectional with internal pull-up OD Digital Output BI↓ Bidirectional with internal pull-down ODT Tri-stateable Digital Output Note: 1 Early VV6410/6411 pre-production samples were 48LCC, however the sampling and production package is 36LCC. 50/63 Version 3.4 STV0680B + VV6410/6411/6500 9.3 VV6410/6411 pinout information and package dimensions VV6410/6411 package dimensions (36pin LCC). A 0.08 +0.2 10.668 SQ.-0.13 1.549 ±0.16 8.636 SQ. ±0.13 0.571±0.05 7.366 SQ. ±0.13 0.546 ±0.05 0.55 ±0.05 1 5 30 0.08 -A- 0.432 ±0.05 33 32 ( Ty 0.2 ) p. 3.937 REF. TYP. 6 (CO.2) Pin n°1 0.7366 Typ. 24 14 15 23 0.178 Max. B/F Pull Back Figure 13 : VV6410/6411 36LCC Package Detail Note: 1 Die is optically centred 2 Refractive Index of Glass is approx. 1.52 Version 3.4 51/63 VV6410/6411 pinout information and package dimensions STV0680B + VV6410/6411/6500 . 8.128 ±0.13 1.016 typ. 33 36 1 6 0.889 REF. TYP. 32 Pin n°1 EF R 8 50 0. YP. T INDEX 0.508 Typ. 24 14 R 0.15 REF 36 PLCS 15 23 R 0.15 REF. 4 CORNERS Figure 14 : VV6410/6411 36LCC Package Detail Note: 1 Die is optically centred 2 Refractive Index of Glass is approx. 1.52 52/63 Version 3.4 STV0680B+ VV6410/6411/6500 VV6500 pinout information and package dimensions NC NC NC NC NC NC SRAMVSS OE NC VV6500 pinout NC 10.1 VSSCORE VV6500 pinout information and package dimensions VSSIO 10 30 29 28 27 26 25 24 23 22 21 20 19 D[2] 34 15 SUSPEND D[3] 35 14 NC D[4] 36 VV6500 13 NC LST/D[5] 37 48LCC 12 VID3V3 FST/D[6] 38 11 AVSS CLKI/CLKIP 39 10 NC CLKIN 40 9 VDDHI D[7] 41 8 NC QCK 42 7 NC 43 44 45 46 47 48 1 2 3 4 5 6 AOUTN POR AOUTP 16 AIN 33 AUD3V3 D[1] NC SDA VBG 17 NC 32 VBUS D[0] VBASE SCL VDDCORE/REG3V3 18 NC 31 VDDIO RESET Figure 15 : 48 pin LCC package pin assignment Version 3.4 53/63 VV6500 pinout information and package dimensions 10.2 STV0680B+ VV6410/6411/6500 VV6500 pin description Name Pin Number Type Description Power supplies AVSS 11 GND Core analogue ground and reference supplies. SRAMVSS 21 GND In-column SRAM analogue ground. VDDio 43 PWR Digital pad ring power. VSScore 29 GND Digital logic ground. VSSio 30 GND Digital pad ring ground. SRAMVSS 21 GND In-column SRAM analogue ground. Analogue signals VBG 1 OA Internally generated bandgap reference voltage 1.22V AIN 4 IA Analogue input to Audio Amplifier AOutP 5 OA Analogue output of Audio Amplifier (positive) AOutN 6 OA Analogue output of Audio Amplifier (negative) VDDHI 9 IA Incoming power supply 4 -> 6V VBase 46 OA Drive for base of external bipolar Vbus 47 IA Incoming power supply 3.3 -> 6V VDDCORE/ REG3V3 45 OA On-chip Voltage Regulator Output IA On-chip Audio Amplifier Reference Input ARef Aud3V3 3 OA On-chip Audio Amplifier Voltage Regulator Output Vid3V3 12 OA On-chip Video Supply Voltage Regulator Output PORB 16 OA Power-on Reset (Bar) Output. Table 21 : VV6500 pin description 54/63 Version 3.4 STV0680B+ VV6410/6411/6500 Name Pin Number VV6500 pinout information and package dimensions Type Description Digital video interface D[4] 36 D[3] 35 - D[4] is the most significant bit. D[2] 34 - D[4:0] have programmable drive strengths 2, 4 and 6 mA D[1] 33 D[0] 32 QCK 42 ODT Tri-stateable data qualification clock. CLKIN 40 BI↑ LVDS negative Clock input LST/D[5] 37 ODT Tri-stateable Line start output ODT Tri-stateable 5-wire output data bus. May be configured as tri-stateable output data bit 5 D[5]. FST/D[6] 38 ODT Tri-stateable Frame start signal. May be configured as tri-stateable output data bit 6 D[6]. D[7] 41 ODT Tri-stateable Data wire (ms data bit). May be configured as tri-stateable output data bit 6 D[6]. OEB 20 ID↓ Digital output (tri-state) enable. ID↑ System Reset. Active Low. Digital control signals RESETB 31 May be configured as System Sync. Active Low. SUSPEND 31 ID↑ USB Suspend Mode Control signal. Active High If this feature is not required then the support circuit must pull the pin to ground. The combination of an active high signal and pull up pad was chosen to limit current drawn by the device while in suspend mode. Serial interface SCL 18 BI↑ Serial bus clock (input only). SDA 17 BI↑ Serial bus data (bidirectional, open drain). ID↓ Schmitt Buffered Clock input or LVDS positive Clock input System clocks CLKI/CLKIP 39 Not connected NC 2, 7, 8, 10,13, 14, 19, 22-28, 48 Not connected Table 21 : VV6500 pin description Key A Analogue Input D Digital Input OA Analogue Output ID↑ Digital input with internal pull-up BI Bidirectional ID↓ Digital input with internal pull-down BI↑ Bidirectional with internal pull-up OD Digital Output BI↓ Bidirectional with internal pull-down ODT Tri-stateable Digital Output Version 3.4 55/63 VV6500 pinout information and package dimensions 10.3 STV0680B+ VV6410/6411/6500 VV6500 package dimensions (48 pin LCC) 14.22 SQ. A 0.08 +0.30 -0.13 11.414 ±0.13 0.571±0.050 9.89 ±0.13 0.33 min. B/F EXPOSURE 0.546 ±0.050 0.432 ±0.050 19 30 MP-2 19 30 MP-3 31 31 0.50 10.490 ±0.13 12.014 ±0.13 18 0 .2 0 ty p . 8 0 .4 . typ 0.20 ref. x 45° Pin n°1 0.20 Typ. 42 7 42 48 1 43 48 43 6 6 1 5.20 Ref. 0.13 Typ. Typ. B/Fpull back Figure 16 : VV6500 Package details 56/63 0.08 -A1.549 ±0.16 Version 3.4 0.0217±0.002 (0.55 ±0.05) STV0680B+ VV6410/6411/6500 VV6500 pinout information and package dimensions +0.25 1.52 -0.13 11.176 ±0.13 Typ. 11.016 ±0.08 typ. 19 30 Typ. 1.02 ±0.18 Typ. 31 18 Pin n°1 Index diam. 0.51 7 R0.15 REF. 6 R0.15 REF. 4 CORNERS 48 PLCS 48 43 0.254 Figure 17 : VV6500 Package details Note: 1 Die is optically centred 2 Refractive Index of Glass is approx. 1.52 Version 3.4 57/63 Schematics and example parts list STV0680B + VV6410/6411/6500 11 Schematics and example parts list 11.1 Schematics Support schematics are shown in the following documents: ● STV0680+VV6444 Reference Design Manual ● STV0680B+VV6410/6411/6500 Reference Design Manual Both are available in the OEM section of the ST Imaging Division web site http://www.st.com (click on “Imaging Products”) An example parts list is shown in Section 11.2, however the above documents should be referred to for the most up-to-date information. 11.2 Example parts list The following is taken from STV0680B + VV6410/6411/6500 Ref Design Manual Rev 2.2. Audio and Flashgun hardware are not included. Assuming VV6410/6411 camera with power supply “option1”, 16MBit SDRAM and 6V battery, with USB and RS232, non-populated options are shown with a grey background. # Qty Refdes Device Package Value Notes Up to 6V, or up to 9V with different schematic 1 1 B1 Battery 2 1 CAP 805 100N 3 20 CAP 805 100N 4 5 6 7 8 9 10 2 2 2 2 1 2 1 C23 C2,C7, C8, C10, C11, C12, c13, C14, C17, C18, C24, C25, C27, C28, C29, C30, C31, C32, C33, C37 C40, C41 C5, C6 C15, C16 C19, C26 C22 C34, C35 C38 CAP CAP CAP CAP CAP ECAP ECAP 805 805 805 805 805 T/H T/H 100N 22P 1U 220P 220N 10U 10U 11 1 D1 1N4001 D041 1N4001 12 1 D1 Schottky D041 Schottky 13 14 1 2 D2 D3,D4 Diode Diode SOT23 SOT23 BAS116 BAS16 15 3 F1, F2, F3 Ferrite 805 16 1 J1 USB_CON CON-USB-4 P_TYPE_B C40-41: option 2 only C38: option 2 only Gen. purpose if 4 x A4 or AA batteries Only use Schottky if 3 x AA or AAA batteries Must be low leakage Only for RS232 May be required for FCC compliance See notes. Consult USB spec for USB compliance Table 22 : STV0680B + VV6410/6411/6500 - Parts list 58/63 Version 3.4 STV0680B + VV6410/6411/6500 # Qty Refdes Schematics and example parts list Device Package Value Notes 17 18 1 1 J2 LCD1 JACK_SKT 2DIGITLC SCJ-0355- B Only for RS232 19 1 LED1 LED 2PINTHRU 20 21 22 23 24 25 26 27 1 2 1 1 1 1 1 1 Q1 Q2, Q3 Q4 Q5 Q6 Q8 Q9 Q10 NPN NPN NPN PNP PNP SI2301DS SI2301DS SI2301DS SOT23 SOT23 SOT23 SOT23 SOT23 SOT23 SOT23 SOT23 28 1 Q12 SI2301DS SOT23 29 1 R1 RES 805 220K 30 1 R72 RES 805 220K 27 28 29 1 2 1 R2 R9, R55 R54 RES RES RES 805 805 805 1R2 100K 100K 30 1 R59 RES 805 100K 31 1 RES 805 100K 32 5 R12 r10, R13, R14, R16, R23 RES 805 1M 33 1 R71 RES 805 1M 34 35 36 36 1 1 1 1 R7 R8 R11 R11 RES RES RES RES 805 805 805 805 470K 82K 330K 510K 36 1 R11 RES 805 36 1 R66 RES 805 0R 37 1 R6 RES 805 0R Only fit if no USB inrush protection required 38 3 RES 805 0R R37, R61, R66: option 2 only 39 1 RES 805 0R 40 4 RES 805 0R Only for camera with no RS232 R43, R44: option 1 only R62, R63: option 1 only 41 42 43 1 2 1 RES RES RES 805 805 805 33R 24R 120K 44 5 RES 805 0R R24: only fit for 60Hz flicker select 45 6 RES 805 10K R25: R24: only fit for 50Hz flicker select R31-R35: only for RS232 46 47 48 2 1 1 RES RES RES 805 805 805 330K 10K 2K2 R37, R61, R66 R65 R43, R44, R62, R63 R17 R19, R20 R22 R24, R67, R68, R69, R70 R25, R31, R32, R33, R34, R35 R28, R29 R41 R30 Could be omitted for reduced current cons. BC848 BC848 BCW61 For USB inrush protection Only for RS232 For USB inrush protection Only for option 2. Switches sensor off in standby mode R72 only req’d for RS232 camera with USB test points R2 for USB inrush protection R54: option 1 only R59 only re’qed for RS232 camera with USB test points R12 for USB inrush protection Only for RS232 camera without USB for production test Suggested value for 6V battery Suggested value for 4.5V battery Suggested value for 9V battery (different schematic) Table 22 : STV0680B + VV6410/6411/6500 - Parts list Version 3.4 59/63 Schematics and example parts list # Device Package Value 49 1 R21 RES 805 1K5 50 1 R64 RES 805 1K5 51 52 53 1 2 1 R36 R39, R40 R50 RES RES RES 805 805 805 680R 4K7 390R 54 1 SW1 TOGGLE_S SWITCH 55 2 SW2, SW3 PUSH_SWI TC FARNEL 56 1 SW4 TOGGLE_S SWITCH 57 1 PIEZO FARNELL_9 58 6 T1 TP1, TP2, TP3, TP4, TP5, TP6 TESTPOINT TP 59 1 U2 VV6500 48LCC 60 1 U3 STV0680B 100QFP 61 1 U4 GM72V661 64 400MIL_OP 62 1 U5 GM72V161 62 400MIL_OP 63 1 U6 VV6410 36LCC U8 Power-onreset chip 64 Qty Refdes STV0680B + VV6410/6411/6500 1 SOT23 65 1 U10 5VREG SOT89-5 66 1 U11 3V3REG SOT89 XTAL HC49U 67 68 Total 1 X1 1 Lens 131 58 Notes Only for RS232 camera without USB for production test Value depends on LED1 type Optional battery off switch when not in use (would lose store images) Push button switches Only required for user selection of flicker frequency (see alternate schematic and explanatory notes) 26 Only required for RS232 camera with USB production Test (lens focusing) VGA sensor (different footprint to VV6410) Only require U2 or U6 STV0680 or STV0680A also suitable SDRAM dual footprint is possible for U4 and U5 Preferred SDRAM has low self refresh Idd. e.g. (16Mbit) LG semicon: GM72V16162ET75 Hyundai: HY57V161610DTC-7 Micron: MT48LC1M16A1TG S Samsung: KM416S11200T-G10 CIF sensor (different footprint to VV6500) only require U2 or U6 U8 only for option 2 2.7-2.93V e.g. MAXIM MAX809SEURT (2v93 threshold) TELCOM TCM809SENB (2v93 threshold) DALLAS DS1233 (SOT223) XC62HR500 U10 only required for 9V battery 2 MC78FC33H U11 only for option2 T1 12MHz Lens with IR filter Table 22 : STV0680B + VV6410/6411/6500 - Parts list Note: 60/63 Not all compatible memory chips exhibit a low enough self-refresh current to meet the target current for USB suspend mode (see Table 17). Two memory types have been suggested in Table 18, based on limited evaluation by ST, however this does not constitute a full characterisation, and no guarantees can be made that the self-refresh current consumption will match the target for USB suspend mode in all cases. Please consult the memory manufacturer Version 3.4 STV0680B + VV6410/6411/6500 12 Evaluation Kit and Reference design manual Evaluation Kit and Reference design manual STMicroelectronics recommends using the Evaluation Kit for initial evaluation and design-in. Both evaluation kits (STV-DCA/CIF-E04 and STV-DCA/VGA-E04) now include audio record and playback circuitry as well as flashgun interface circuitry and a flashgun hotshoe connector (to allow the OEM to use a standard camera flashgun), allowing the new features as well as the existing features to be demonstrated. Also included are a STV0680B + CMOS sensor chipset, memory, lens, connectors, LCD, battery holder, push buttons/switches, and other components as detailed. Optional PCB links enable alternate functionality, and demonstration software is included, allowing for tethered video, upload to the PC of pictures, sounds, and AVI movie clips, and download to the camera of custom sounds. A reference design manual is available, giving the camera designer everything required to design a complete camera with standard features. It includes schematics, explanatory notes, parts list and layout advice. Audio and flashgun hardware are the subject of separate applications notes, contact ST for details. 12.1 Ordering details Description Part number VV6410C036 36pin LCC, CIF CMOS sensor VV6411C036 48pin LCC, VGA CMOS sensor VV6500C001 Standard features STV0680B companion processor STV0680B-001 Evaluation Kit for STV0680B+VV6410 STV-DCA/CIF-E01 Evaluation Kit for STV0680B+VV6500 STV-DCA/VGA-E01 “Standard” + “New” features: Including Audio, Custom sounds, and Flashgun STV0680B companion processor STV0680B-003 Evaluation Kit for STV0680B+VV6410 STV-DCA/CIF-E04 Evaluation Kit for STV0680B+VV6500 STV-DCA/VGA-E04 Table 23 : Ordering details for the STV0680B + VV6410/6411/6500 Version 3.4 61/63 Evaluation Kit and Reference design manual 12.2 STV0680B + VV6410/6411/6500 Technical support Technical support information, such as datasheets, software downloads,etc, for products of the STMicroelectronics Imaging Division can be found at http://www.vvl.co.uk/ or www.st.com (click on Imaging products) General sales/technical enquiries can be directed to regional email contacts: [email protected] [email protected] [email protected] [email protected] [email protected] [email protected] [email protected] [email protected] 62/63 Version 3.4 STV0680B + VV6410/6411/6500 Information furnished is believed to be accurate and reliable. However, STMicroelectronics assumes no responsibility for the consequences of use of such information nor for any infringement of patents or other rights of third parties which may result from its use. No license is granted by implication or otherwise under any patent or patent rights of STMicroelectronics. Specifications mentioned in this publication are subject to change without notice. This publication supersedes and replaces all information previously supplied. STMicroelectronics products are not authorized for use as critical components in life support devices or systems without express written approval of STMicroelectronics. The ST logo is a registered trademark of STMicroelectronics © 2001 STMicroelectronics - All Rights Reserved STMicroelectronics GROUP OF COMPANIES Australia - Brazil - China - Finland - France - Germany - Hong Kong - India - Italy - Japan Malaysia - Malta - Morocco - Singapore - Spain - Sweden - Switzerland - United Kingdom - U.S.A. www.st.com Version 3.4 63/63