Raspberry Pi HQ Camera
Official Raspberry Pi HQ Camera, 12.3M pixels.
- 12.3 million pixels: 4056(H) x 3040(V)
- CMOS diagonal length: 7.9mm
- Single pixel size: 1.55μm(H) x 1.55μm (V)
- Output format: RAW12/10/8, COMP8
- Back focus: adjustable (12.5mm-22.4mm)
- Lens standard
- CS-mount (including C/CS connection ring)
- IR filter: integrated
- Tripod mount: 1/4"-20
- Compatible with standard
- FCC 47 CFR Part 15, Subpart B, Class B Digital Device
- Electromagnetic Compatibility Directive (EMC) 2014/30/EU
- Restriction of Hazardous Substances (RoHS) Directive 2011/65/EU
Specification of Lens
6mm Wide Angle Lens
16mm Telephoto Lens
25mm Telephoto Lens
35mm Telephoto Lens
8-50mm Zoom Lens
|FoV||63°||1″ 44.6° × 33.6°
2/3″ 30.0° × 23.2°
1/1.8″ 24.7° × 18.6°
1/2″ 21.8° ×16.4°
|Dimenstion||Φ30.00 × 34.00mm||Φ39.00 × 50.00mm||Φ34.00×34.00mm||Φ35.00×34.00mm||Φ40.00×68.30mm|
To test the Camera, you need to connect a HDMI display or a DIS display for previewing.
The connectors of the DSI interface (display) and the CSI interface (camera) look the same, please take care of it when you connect the camera. The CSI interface is placed between the Audio jack and the HDMI port. the CSI connector of Pi zero is beside the Power interface. If you use Compute Module, please check the actual place of the carrier board.
- Connect to Pi Zero Series
- Other Raspberry Pi motherboards
About the model
|Photosensitive chip model||Supported Raspberry Pi board model||Supported driver type|
|OV5647||All Raspberry Pi boards||libcamera / Raspicam|
|OV9281||All Raspberry Pi boards||libcamera|
|IMX219 (Raspberry Pi official)||All Raspberry Pi boards||libcamera / Raspicam|
|IMX219 (third party)||Raspberry Pi Compute Module||libcamera|
|IMX290/ IMX327||All Raspberry Pi boards||libcamera|
|IMX378||All Raspberry Pi boards||libcamera|
|IMX477 (Raspberry Pi official)||All Raspberry Pi boards||libcamera / Raspicam|
|IMX477 (third party)||Raspberry Pi Compute Module||libcamera|
|IMX519||All Raspberry Pi boards||libcamera (needs to install driver)|
Enable Camera Interface
If you are using the latest bullseye image, the camera interface has been enabled by default, so you can skip the modification steps.
- Open the Raspberry Pi terminal and use the command to enter the setting interface
- Set up the camera
Select Interface Options -> Camera -> Yes -> Finish -> Yes
- Reboot the Raspberry Pi
Test Camera(Bullseyes OS)
If you use OV9281, IMX290, IMX378, or non-Raspberry Pi official IMX219 and IMX477 cameras, you need to configure the config.txt file separately.
sudo nano /boot/config.txt
Find "camera-auto-detect=1" and modify it to "camera_auto_detect=0"
At the end of the file, add the following setting statements according to the camera model.
- Open the Raspberry Pi terminal and enable the camera to preview.
sudo libcamera-hello -t 0
If you want to close the preview window, you can directly combine the keys Alt-F4, or click x to close. You can also go back to the terminal interface and terminate the program with Ctrl+c.
Test Camera（Buster OS）
Open a terminal and test the camera with the following command:
sudo raspistill -t 0
If you want to close the preview windows, you can use Ctrl-C to stop the appliation.
After the Bullseye version of the Raspberry Pi image, the underlying Raspberry Pi driver was switched from Raspicam to libcamera. Libcamera is an open-source software stack (will be called driver later, which is easy to understand), which is convenient for third-party porting and development of their own camera drivers. As of 2021-12-20, there are still many bugs in libcamera, and the current libcamera does not support python, so the Raspberry Pi official still provides a method for installing and downloading Raspicam. For users who are difficult to switch to libcamera but need to use the latest system, please directly refer to the Raspicam instructions.
The libcamera software stack provides six instructions for users to preview and test the camera interface.
This is a simple "hello world" program that previews the camera and displays the camera image on the screen.
This command will preview the camera on the screen for about 5 seconds. The user can use the "-t <duration>" parameter to set the preview time, where the unit of <duration> is milliseconds. If it is set to 0, it will keep previewing all the time. For example:
libcamerahello -t 0
The libcamera driver of the Raspberry Pi will call a tuning file for different camera modules. The tuning file provides various parameters. When calling the camera, libcamera will call the parameters in the tuning file, and process the image in combination with the algorithm. The final output is the preview screen. Since the libcamera driver can only automatically receive the signal of the chip, the final display effect of the camera will also be affected by the entire module. The use of the tuning file is to flexibly handle the cameras of different modules and adjust to improve the image quality.
If the output image of the camera is not ideal after using the default tuning file, the user can adjust the image by calling the custom tuning file. For example, if you are using the official NOIR version of the camera, the NOIR camera may require different white balance parameters compared with the regular Raspberry Pi Camera V2. In this case, you can switch by calling the tuning file.
libcamera-hello --tuning-file /usr/share/libcamera/ipa/raspberrypi/imx219_noir.json
Users can copy the default tuning files and modify them according to their needs.
Note: The use of tuning files is applicable to other libcamera commands, and will not be introduced in subsequent commands.
Most libcamera commands will display a preview window on the screen. Users can customize the title information of the preview window through the --info-text parameter, and can also call some camera parameters through %directives and display them on the window.
For example, if you use HQ Camera: You can display the focal length of the camera on the window through --info-txe "%focus".
libcamera-hello --info-text "focus %focus".
Note: For more information on parameter settings, please refer to the following chapters.
libcamera-jpeg is a simple still picture shooting program, different from the complex functions of libcamera-still, libcamera-jpeg code is more concise and has many of the same functions to complete picture shooting.
Take JPEG image of full pixel
libcamera-jpeg -o test.jpg
This shooting command will display a preview serial port for about 5 seconds, and then shoot a full-pixel JPEG image and save it as test.jpg.
Users can set the preview time through the -t parameter, and can set the resolution of the captured image through --width and --height. E.g:
libcamera-jpeg -o test.jpg -t 2000 --width 640 --height 480
All libcamera commands allow the user to set the shutter time and gain themselves, such as:
libcamera-jpeg -o test.jpg -t 2000 --shutter 20000 --gain 1.5
This command will capture an image with 20ms exposure and camera gain set to 1.5x. The gain parameter set will first set the analog gain parameter inside the photosensitive chip. If the set gain exceeds the maximum built-in analog gain value of the driver, the maximum analog gain of the chip will be set first, and then the remaining gain multiples will be used as numbers. gain to take effect.
Remarks: The digital gain is realized by ISP (image signal processing), not directly adjusting the built-in register of the chip. Under normal circumstances, the default digital gain is close to 1.0, unless there are the following three situations.
- Overall gain parameter requirements, that is, when the analog gain cannot meet the set gain parameter requirements, digital gain will be needed for compensation.
- One of the color gains is less than 1 (the color gain is achieved by digital gain), in this case, the final gain is stabilized at 1/min(red_gain, blue_gain), that is, a uniform number is actually applied gain, and is the gain value for one of the color channels (not the green channel).
- AEC/AGC was modified. If there is a change in AEC/AGC, the numerical gain will also change to a certain extent, where does it come from to eliminate any fluctuations, but this change will be quickly restored to the "normal" value.
The Raspberry Pi's AEC/AGX algorithm allows the program to specify exposure compensation, which is to adjust the brightness of the image by setting the aperture value, for example:
libcamera-jpeg --ev -0.5 -o darker.jpg libcamera-jpeg --ev 0 -o normal.jpg libcamera-jpeg --ev 0.5 -o brighter.jpg
libcamera-still and libcamera-jpeg are very similar, the difference is that libcamera inherits more functions of raspistill. As before, the user can take a picture with the following command.
libcamera-still -o test.jpg
libcamea-still supports image files in different formats, can support png and bmp encoding, and also supports saving binary dumps of RGB or YUV pixels as files without encoding or in any image format. If you save RGB or YUV data directly, the program must understand the pixel arrangement of the file when reading such files.
libcamera-still -e png -o test.png libcamera-still -e bmp -o test.bmp libcamera-still -e rgb -o test.data libcamera-still -e yuv420 -o test.data
Note: The format of image saving is controlled by the -e parameter. If the -e parameter is not called, it will be saved in the format of the output file name by default.
Raw image capture
The raw image is the image output by the direct image sensor without any ISP or CPU processing. For color camera sensors, the output format of the raw image is generally Bayer. Note that the raw image is different from the bit-encoded RGB and YUV images we said earlier, and RGB and YUV are also ISP-processed images.
Instructions to take a raw image:
libcamera-still -r -o test.jpg
The original image is generally saved in DNG (Adobe Digital Negative) format, which is compatible with most standard programs, such as dcraw or RawTherapee. The original image will be saved as a file of the same name with the .dng suffix, for example, if you run the above command, it will be saved as a test.dng, and generate a jpeg file at the same time. The DNG file contains metadata related to image acquisition, such as white balance data, ISP color matrix, etc. The following is the metadata encoding information displayed by the exiftool:
File Name : test.dng Directory : . File Size : 24 MB File Modification Date/Time : 2021:08:17 16:36:18+01:00 File Access Date/Time : 2021:08:17 16:36:18+01:00 File Inode Change Date/Time : 2021:08:17 16:36:18+01:00 File Permissions : rw-r--r-- File Type : DNG File Type Extension : dng MIME Type : image/x-adobe-dng Exif Byte Order : Little-endian (Intel, II) Make : Raspberry Pi Camera Model Name : /base/soc/i2c0mux/[email protected]/[email protected] Orientation : Horizontal (normal) Software : libcamera-still Subfile Type : Full-resolution Image Image Width : 4056 Image Height : 3040 Bits Per Sample : 16 Compression : Uncompressed Photometric Interpretation : Color Filter Array Samples Per Pixel : 1 Planar Configuration : Chunky CFA Repeat Pattern Dim : 2 2 CFA Pattern 2 : 2 1 1 0 Black Level Repeat Dim : 2 2 Black Level : 256 256 256 256 White Level : 4095 DNG Version : 126.96.36.199 DNG Backward Version : 188.8.131.52 Unique Camera Model : /base/soc/i2c0mux/[email protected]/[email protected] Color Matrix 1 : 0.8545269369 -0.2382823821 -0.09044229197 -0.1890484985 1.063961506 0.1062747385 -0.01334283455 0.1440163847 0.2593136724 As Shot Neutral : 0.4754476844 1 0.413686484 Calibration Illuminant 1 : D65 Strip Offsets : 0 Strip Byte Counts : 0 Exposure Time : 1/20 ISO : 400 CFA Pattern : [Blue, Green][Green, Red] Image Size : 4056x3040 Megapixels : 12.3 Shutter Speed : 1/20
If we want to take a super long exposure picture, we need to disable AEC/AGC and white balance, otherwise these algorithms will cause the picture to wait for a lot of frame data when it converges. Disabling these algorithms requires another explicit value to be set. Additionally, the user can skip the preview process with the --immediate setting.
Here is the instruction to take an image with an exposure of 100 seconds:
libcamera-still -o long_exposure.jpg --shutter 100000000 --gain 1 --awbgains 1,1 --immediate
Remarks: Reference table for the longest exposure time of several official cameras.
|Module||Maximum exposure time (s)|
libcamera-vid is a video recording program that uses the Raspberry Pi hardware H.264 encoder by default. After the program runs, a preview window will be displayed on the screen, and the bitstream encoding will be output to the specified file. For example, record a 10s video.
libcamera-vid -t 10000 -o test.h264
If you want to view the video, you can use vlc to play it
Note: The recorded video stream is unpackaged. Users can use --save-pts to set the output timestamp to facilitate subsequent conversion of the bit stream to other video formats.
libcamera-vid -o test.h264 --save-pts timestamps.txt
If you want to output the mkv file, you can use the following command:
mkvmerge -o test.mkv --timecodes 0:timestamps.txt test.h264
Raspberry Pi supports JPEG format and YUV420 without compression and format:
libcamera-vid -t 10000 --codec mjpeg -o test.mjpeg libcamera-vid -t 10000 --codec yuv420 -o test.data
The --codec option sets the output format, not the output file extension.
Use the --segment parameter to split the output file into segments (unit is ms), which is suitable for JPEG files that need to split the JPEG video stream into separate short (about 1ms) JPEG files.
libcamera-vid -t 10000 --codec mjpeg --segment 1 -o test%05d.jpeg
Libcamera-raw is similar to a video recording program. In different places, libcamera-raw records the Bayer format data output by the direct sensor, that is, the original image data. Libcamera-raw doesn't show a preview window. For example, record a 2-second clip of raw data.
libcamera-raw -t 2000 -o test.raw
The program will directly dump the original frame without format information, the program will directly print the pixel format and image size on the terminal, and the user can view the pixel data according to the output data.
By default, the program will save the original frame as a file, the file is usually large, and the user can divide the file by the --segement parameter.
libcamera-raw -t 2000 --segment 1 -o test%05d.raw
If the memory is large (such as using SSD), libcamera-raw can write the official HQ Camera data (about 18MB per frame) to the hard disk at a speed of about 10 frames per second. In order to achieve this speed, the program writes the unformatted raw frames, there is no way to save them as DNG files like libcamera-still does. If you want to ensure that there are no dropped frames, you can use --framerate to reduce the frame rate.
libcamera-raw -t 5000 --width 4056 --height 3040 -o test.raw --framerate 8
Common Command Setting Options
Common command setting options apply to all libcamera commands:
Print program help information, you can print the available setting options for each program command, and then exit.
Print the software version, print the software version of libcamera and libcamera-app, then exit.
The "-t" option sets the running time of the libcamera program. If the video recording command is run, the timeout option sets the recording duration. If the image capture command is run, the timeout sets the preview time before the image is captured and output.
If the timeout is not set when running the libcamera program, the default timeout value is 5000 (5 seconds). If the timeout is set to 0, the program will continue to run.
Example: libcamera-hello -t 0
"-p" sets the size and position of the preview window (the qualified settings are valid in both X and DRM version windows), and the format is --preview <x. y, w, h> where "x, y" sets the preview window coordinate, "w" and "h" set the width and length of the preview window.
The settings of the preview serial port will not affect the resolution and aspect ratio of the camera image preview. The program will scale the preview image to display in the preview window and adapt it according to the original image aspect ratio.
Example: libcamera-hello -p 100,100,500,500
The "-f" option sets the preview window full screen, the preview window, and the border in full-screen mode. Like "-p", it does not affect the resolution and aspect ratio, and will automatically adapt.
Example: libcamera-still -f -o test.jpg
Using the preview window based on the QT framework, this setting is not recommended under normal circumstances, because the preview program will not use zero-copy buffer sharing and GPU acceleration, which will occupy more resources. The QT preview window supports X forwarding (the default preview program does not).
The Qt preview serial port does not support the "--fullscreen" setting option. If the user wants to use the Qt preview, it is recommended to keep a small preview window to avoid excessive resource usage and affecting the normal operation of the system.
Example: libcamera-hello --qt-preview
Images are not previewed. This setting will turn off the image preview function.
Example: libcamera-hello -n
Set the title and information display of the preview window (only available in the X graphics window) using the format --info-text <string>. When calling this option, there are multiple parameters that can be set, and the parameters are usually called in the % command format. The program will call the corresponding value in the graphics metadata according to the instruction.
If no window info is specified, the default --info-text is set to "#%frame (%fps fps) exp %exp ag %ag dg %dg"
Example: libcamera-hello --info-test "Focus measure: %focus Available parameters:
|%frame||frame sequence number|
|%fps||Instantaneous frame rate|
|%exp||The shutter speed when capturing the image, in ms|
|%ag||Image analog gain controlled by the sensor chip|
|%dg||Image value gain controlled by ISP|
|%rg||Gain of the red component of each pixel|
|%bg||The gain of the blue component of each pixel|
|%focus||The corner measurement of the image, the larger the value, the clearer the image|
These two parameters set the width and height of the image, respectively. For libcamera-still, libcamera-jpeg and libcamera-vid commands, these two parameters can set the resolution of the output image/video.
If the libcamera-raw command is used, these two parameters affect the size of the obtained metadata frame. The camera has a 2 x 2 block reading mode. If the set resolution is smaller than the split mode, the camera will obtain the metadata frame according to the 2 x 2 block size.
libcamera-hello cannot specify the resolution.
libcamera-vid -o test.h264 --width 1920 --height 1080 Record 1080p video
libcamera-still -r -o test.jpg --width 2028 --height 1520 Takes a 2028 x 1520 JPEG image.
This setting option is also used to set the resolution of the image, the difference is only the image size of the preview. It does not affect the final output image or video resolution. The size of the preview image will not affect the size of the preview window and will be adapted according to the window.
Example: libcamera-hello --viewfinder-width 640 --viewfinder-height 480
This setting forces the sensor to use the --width and --height settings to output still images and video in full-resolution read mode. This setting libcamera-hello has no effect.
With this setting, the framerate is sacrificed. In full-resolution mode, frame reading will be slower.
Example: libcamera-raw -t 2000 --segment 1 --rawfull -o test%03d.raw The example command captures multiple full resolution images Metadata frame in rate mode. If you are using HQ camera. The size of each frame is 18MB, and if --rawfull is not set, the HQ camera defaults to 2 x 2 mode, and the data size of each frame is only 4.5MB.
These two options set low-resolution images. The low-resolution data stream compresses the image, causing the aspect ratio of the image to change. When using libcamera-vid to record video, if a low resolution is set, functions such as color denoising will be disabled.
Example: libcamera-hello --lores-width 224 --lores-height 224 Note that low resolution settings are often used in conjunction with image postprocessing, otherwise it has little effect.
--hflip #Flip the image horizontally --vflip #Flip the image vertically --rotation #Flip the image horizontally or vertically according to the given angle <angle>
These three options are used to flip the image. The parameters of --rotation currently only support 0 and 180, which are actually equivalent to --hflip and --vflip.
Example: libcamera-hello --vflip --hflip
--roi #crop image <x, y, w, h>
"--roi" allows the user to crop the image area they want according to the coordinates from the complete image provided by the sensor, that is, digital scaling, pay attention to the coordinate value if it is in the valid range. For example --roi 0, 0, 1, 1 is an invalid instruction.
Example: libcamera-hello --roi 0.25,0.25,0.5,0.5
The example command will crop 1/4 of the image from the center of the image.
--sharpness #Set the sharpness of the image <number>
Adjust the sharpness of the image by the value of <number>. If set to 0, no sharpening is applied. If you set a value above 1.0, an extra sharpening amount will be used.
Example: libcamera-still -o test.jpg --sharpness 2.0
--contrast #Set image contrast <number>
Example: libcamera-still -o test.jpg --contrast 1.5
--brightness #Set image brightness <number>
The setting range is -1.0 ~ 1.0
Example: libcamera-still -o test.jpg --brightness 0.2
--saturation #Set image color saturation <number>
Example: libcamera-still -o test.jpg --saturation 0.8
--ev #Set EV compensation <number>
Set the EV compensation of the image in aperture units, the setting range is -10 ~ 10, the default value is 0. The program works by improving the target method of the AEC/AGC algorithm.
Example: libcamera-still -o test.jpg --ev 0.3
--shutter #Set the exposure time, the unit is ms <number>
Note: If the frame rate of the camera is too fast, it may not work according to the set shutter time. If this happens, you can try to use --framerate to reduce the frame rate.
Example: libcamera-hello --shutter 30000
--gain #Set gain value (combination of numerical gain and analog gain) <number> --analoggain #--gain synonym
--analoggain is the same as --gain, the use of analoggain is only for compatibility with raspicam programs.
--metering #Set metering mode <string>
Set the metering mode of the AEC/AGC algorithm, the available parameters are:
- centre - Center metering (default)
- spot - spot metering
- average - average or full frame metering
- custom - custom metering mode, can be set via tuning file
Example: libcamera-still -o test.jpg --metering spot
--exposure #set exposure profile <string>
The exposure mode can be set to normal or sport. The report profile for these two modes does not affect the overall exposure of the image, but in the case of sports mode, the program will shorten the exposure time and increase the justice to achieve the same exposure effect.
Example: libcamera-still -o test.jpg --exposure sport
--awb #Set white balance mode <string>
Available white balance modes:
|auto||2500K ~ 8000K|
|incadescent||2500K ~ 3000K|
|fluorescent||4000K ~ 4700K|
|indoor||3000K ~ 5000K|
|daylight||5500K ~ 6500K|
|cloudy||7000K ~ 8500K|
|custom||Custom range, set via tuning file|
Example: libamera-still -o test.jpg --awb tungsten
--awbgains #Set a fixed color gain <number,number>
Set red and blue gain.
Example: libcamera-still -o test.jpg --awbgains 1.5, 2.0
--denoise #Set denoising mode <string>
Supported denoising modes:
- auto - default mode, use standard spatial denoising, if it is video, it will use fast color noise reduction and use high-quality color noise reduction when taking still pictures. The preview image will not use any color denoising.
- off - turn off spatial denoising and color denoising
- cdn_off - turn off color denoising
- cdn_fast - use fast color denoising
- cdn_hq - use high-quality color denoising, not suitable for video recording.
Example: libcamera-vid -o test.h264 --denoise cdn_off
--tuning-file #Specify camera tuning file <string>
For more instructions on tuning files, you can refer to official tutorial
Example: libcamera-hello --tuning-file ~/my~camera-tuning.json
--output, -o #output filename <string>
Set the filename of the output image or video. In addition to setting the file name, you can also specify the output udp or tcp server address to output the image to the server. If you are interested, you can check the relevant setting instructions of the subsequent tcp and udp.
Example: libcamera-vid -t 100000 -o test.h264
--wrap #Wrap the output file counter <number>
Example: libcamera-vid -t 0 --codec mjpeg --segment 1 --wrap 100 -o image%d.jpg
--flush # Flush the output file immediately
--flush will immediately update each frame of the image to the hard disk at the same time as it is written, reducing latency.
Example: libcamera-vid -t 10000 --flush -o test.h264
Still photo shooting setting parameters
--qiality, -q #Set JPEG image quality <0 ~ 100> --exif, -x #Add extra EXIF flags --timelapse #Time interval of time-lapse photography, the unit is ms --framestart #start value of frame count --datetime #name output file with date format --timestamp #name the output file with the system timestamp -- restart #Set the JPEG restart interval --keypress, -k # Set the enter button photo mode --signal, -s #Set the signal to trigger the photo --thumb #Set thumbnail parameters <w:h:q> --ebcoding, -e #Set the image encoding type. jpg/png/bmp/rgb/yuv420 --raw, -r #Save raw image --latest #Associate symbols to the latest saved file
Video recording image setting parameters
--quality, -q # Set JPEG commands <0 - 100> --bitrate, -b # Set H.264 bitrate --intra, -g #Set the internal frame period (only supports H.264) --profile #Set H.264 configuration --level #Set H.264 level --codec #Set encoding type h264 / mjpeg / yuv420 --keypress, -k #Set carriage return to pause and record --signal, -s #Set signal pause and record --initial #Start the program in the recording or paused state --split #Split video and save to another file --segment #Split video into multiple video segments --circular #Write video to circular buffer --inline #Write header in each I frame (H.264 only) --listen #Wait for a TCP connection
- For more camera setup instructions, please refer to the official documentation Official camera documentation
If you are using the Buster version of the image, the Raspicam driver is installed by default in the system, you can directly turn on the camera and use it.
If you are using the latest Bullseye system, you need to install and configure it separately.
Install Raspicam (optional)
Open the Raspberry Pi terminal, and enter the following command to install the driver. Note: This driver cannot support 64-bit Raspberry Pi system temporarily.
sudo apt-get update cd sudo apt install cmake git clone https://github.com/raspberrypi/userland cd userland ./buildme cp build/bin/* ~/bin/
After following the need to restart the system
The raspistill command is used to take still pictures. Example: raspistill -o cam.jpg
The raspivid command is used to record video. Example: raspivid -o vid.h264
The raspiyuv command has the same function as raspisitll, the difference is that raspiyuv is not Su Chu. jpgs and other standard image files, but generate YUV420 or RGB888 image files from the camera's ISP output.
In most cases, it is better to use raspistill to capture images, but if you want to use uncompressed black and white images, you can choose to use the raspiyuv command. Example: raspiyuv -o cam.jpg
Instruction Setting Options
When the raspicam command is used, the final imaging effect can be adjusted by setting options. The available setting options are listed below for reference.
--preview, -p #Set the preview window <x, y, w, h>
The user can set the position of the preview window by setting the values of x and y, and adjust the resolution of the preview image by setting the values of w and h.
--fullscreen, -f #Fullscreen preview window
Display the preview window in full screen.
--nopreview, -n #Do not display the preview window
Close the preview window and the command will output the image or video directly to a file.
--opacity, -op #Set the transparency of the preview window
Set the transparency of the preview window, 0 is invisible, and 255 is fully transparent.
--sharpness, -sh #Set image sharpness (-100 - 100)
The default sharpening value is 0.
--contrast. -co #Set image contrast (-100 - 100)
The default contrast is 0.
--brightness, -br #Set image contrast (0 - 100)
The default brightness is 50, 0 is fully black, and 100 is full white.
--saturation, -sa #set image saturation (-100 - 100)
The default saturation is 0.
--ISO #set shutter sensitivity (100 - 800)
Set sensitivity when taking pictures.
--vstab, -vs #Enable video stabilization
Only the video recording mode is valid, and video stabilization is enabled.
--ev #set EV compensation
Set the EV compensation value of the image to default 0.
--exposure, -ex #Set exposure mode
Settable exposure options:
- auto: automatic exposure mode
- night: night shooting mode
- backlight: backlight mode
- sports: sports mode (the shutter time will be shortened in sports mode
- snow: Snow mode
- beach: beach mode
- verylong: long exposure mode
- fixedfps: fixed fps
- antishake: anti-shake mode
- fireworks: fireworks mode
Note: Depending on the camera model, some modes are not available.
--flicker, -fli #flicker avoidance
Modes that can be set:
- off: turn off anti-flicker mode
- auto: auto-detect betting frequency
- 50Hz: Set the anti-flicker frequency to 50Hz
- 60Hz: Set the anti-flicker frequency to 60Hz
--awb, #Set auto white balance mode
- off: disable auto white balance
- auto: Auto white balance mode (default)
- sun: sunny mode (5000K ~ 6500K)
- cloud: cloudy mode (6500K ~ 12000K)
- shade: shadow mode
- tungsten: Tungsten mode (2500K ~ 3500K)
- incandescent: Incandescent mode (2500K ~ 4500K)
- flash: flash mode
- horizon: horizon mode
- greyworld: If you are using a camera without an IR filter (eg NoIR), you can fix the white balance misalignment caused by the lack of an IR filter
Note: Depending on the camera model, some modes are not available.
--imfx, -ifx #Set image filter effect
Configurable image filter effects:
- none: no effect (default)
- negative: color flip
- solarise: sunlight effect
- posterise: poster effect
- whiteboard: whiteboard effect
- backboard: blackboard effect
- sketch: sketch
- denoise: denoise
- emboss: Emboss
- oilpaint: oil painting
- hatch: texture
- gpen: pencil sketch
- pastel: colored pencils
- watercolour: watercolor
- film: film
- blur: blur
- saturation: saturation
Note: Depending on the camera model, some modes are not available.
--colfx, -cfx #Set color effect <U:V>
The setting range of the U and V parameters is 0 ~ 255, which are used to adjust the values of the U and Y channels. For example: --colfx 128:128 will set the image to monochrome.
--metering, -mm #Set metering mode
- Average: average or full frame metering
- spot: spot metering
- backlit: preset a backlit image
- matrix: matrix metering
--rotation, -rot #set image rotation (0 - 359)
The image rotation angle can be set by the angle parameter.
--hflip, -hf #Set the image to flip horizontally
Set the image to be flipped horizontally.
--vflip, -vf #Set the image to flip vertically
Flip the image vertically.
--roi, #crop image <x, y, w, h>
Crop the image according to the parameters, note that the parameters are all planned in (0,0 ~ 1.0), for example, if you want to crop 1/4 of the image, you can use the command - roi 0.5,0.5,0.25,0.25.
--shutter, --ss set shutter speed/time
Set the shutter time (unit: ms). Shutter time The maximum shutter time that can be set is different depending on the photosensitive chip.
|Model||Max Digit (ms)|
|V1 (OV5647)||6000000 (6s)|
|V2 (IMX219)||10000000 (10s)|
|HQ (IMX477||200000000 (200s)|
--drc, -drc #Enable/disable dynamic range compression
- off (default)
--stats, -st #Statistics images by static image frames
Set blue and green gain, which takes effect if --awb off is set.
Set the analog gain value
Set digital gain value
Set sensor mode:
|Mode||Resolution||Aspect Ratio||Frame Rate||FoV|
|1||1920 x 1080||16:9||1-30fps||Partial|
|2||2592 x 1944||4:3||1-15fps||Full Frame|
|3||2592 x 1944||4:3||0.1666 - 1fps||Full Frame|
|4||1296 x 972||4:3||1 - 42fps||Full Frame|
|5||1296 x 730||16:9||1- 49fps||Full Frame|
|6||640 x 480||4:3||42.1 - 60fps||Full Frame|
|7||640 x 480||4:3||60.1 - 90fps||Full Frame|
|Mode||Resolution||Aspect Ratio||Frame Rate||FoV|
|1||1920 x 1080||16:9||0.1-30fps||Partial|
|2||3280 x 2464||4:3||0.1-15fps||Full Frame|
|3||3280 x 2464||4:3||0.1 - 15fps||Full Frame|
|4||1640 x 972||4:3||1 - 42fps||Full Frame|
|5||1296 x 730||16:9||1- 49fps||Full Frame|
|6||640 x 480||4:3||42.1 - 60fps||Full Frame|
|7||640 x 480||4:3||60.1 - 90fps||Full Frame|
- HQ Camera
|Mode||Resolution||Aspect Ratio||Frame Rate||FoV|
|1||2028 x 1080||169:90||0.1-50fps||Partial|
|2||2028 x 1080||4:3||0.1-50fps||Full Frame|
|3||4056x3040||4:3||0.005 - 10fps||Full Frame|
When multiple cameras are connected to the system, select camera, 0 or 1.
--annotate, -a #enable/set annotations
The parameters are represented by bit masks in the metadata, which can be directly represented by addition. For example, 12 can represent the display time (4) and the display date (8), which is represented by the addition of 4+8 =12.
|-a 12||Time and date, actually 4 + 8|
|-a 16||Shutter setting|
|-a 32||CAF settings|
|-a 64||gain setting|
|-a 128||Lens settings|
|-a 256||animation settings|
|-a 512||number of frames|
|-a 1024||black background|
|-a "ABC %Y-%m-%d %X"||display text|
|-a 4 -a "ABC %Y-%m-%d %X"||Display time/date in custom format|
|-a 8 -a "ABC %Y-%m-%d %X"||Display time/date in custom format|
--annotateex, -ae #Set additional annotation parameters
Set the binocular mode.
- sbs - side-by-side mode
- tb: - Portrait mode
- off - turn off binocular mode (default)
Halve the width and height of the binocular image.
Output current camera settings.
raspistill setting parameters
--width, -w #Set image width --height, -h #Set image height --quality, 0q #Set JPEG quality <0 ~ 100> --raw, -r #Add raw Bayer data to JPEG metadata --output, -o #output file <filename> --latest, -l #Associate the last frame image to the file <filename> --verbose, -v #print details --timeout, -t #Set the program preview time --timelapse, -tl #Set up demo photography --framestart, -fs #Save the number of the first frame --datetime, -dt #name the file with datetime --timestamp, -ts #name files with timestamps --thumb, -th #Set thumbnail parameters <x:y:quility>, the default is (64:48:35) --demo, -d #Run demo mode <ms" --encoding, -e #encode according to the specified format, jpg, bmp or png --restart, -rs #Set JPEG restart flag --exif, -x #Set EXIF flag --gpsdexif, -gps #Set real-time exif time (requires GPS Dongle access) --fullpreview, -fg #Fullscreen preview --keypress, -k #Keypress camera mode --signal, -s # signal mode --burst, -bm #Snapshot mode
raspivid setting parameters
--width, -w #Set the video width --height, -h #Set the video height --bitrate, -b #set bitrate --output, -o #Set the output filename <filename> --listen, -l #When using a network connection, wait for a network connection --versbose, -v #print details --timeout, -t #Set preview time --demo, -d #run demo <ms> --framerate, -fs #set frame rate --penc, -e #Display the encoded preview image --intra, -g #Set the internal refresh cycle --qp, -qp #Set quantization parameters --profile, -pf #Specify H264 profile, baseline/main/high --level, -lev #Set H264 encoding level --irefresh, -if #Set H264 internal refresh type cyclic/adaptive/both/cyclicrows --inline, -ih #Insert PPS, SPS header --spstimings, -stm #Insert timing information into SPS blocks --timed, -td #Timed switch recording and pause function --keypress, -k #Keypress to pause recording --signal, -s #Switch pause and record state according to SIGUSR1 --split, -sp #In signal and keypress mode, the file will be recreated every time you re-record --vectors, -x # vector output --flush, -fl #Force the output data buffer to be flushed immediately after writing video data, bypassing any OS cache for written data and reducing latency. --save-pts, -pts #Save timestamp information to the specified file. --codec, -cd # Specify encoder H264 / MJPEG --initial, -i #Set the initial state of startup --segment, -sg #Split video stream into multiple files --wrap, -wr #Set the maximum value of the split --start, -sn #Set the initial split encoding --raw, -r #Set metadata file name --raw-format, -rf #Specify metadata format yuv/rgb/grey
- User manual
- Camera Guide
- Raspberry Pi High Quality Camera Getting Started
- HQ Camera Drawing
- C-Mount Lens Guide
- CS-Mount Lens Guide
- The following OpenCV adjustment code is for reference only. (The code is shared by RPi Camera (G) users)
import picamera import picamera.array import cv2 from time import sleep import numpy as np def test_gcamera(): cv2.namedWindow("img",0) with picamera.PiCamera() as camera: camera.resolution = (1920, 1080) camera.awb_mode = 'off' rg, bg = (1.8, 1.4) camera.awb_gains = (rg, bg) with picamera.array.PiRGBArray(camera) as output: for foo in camera.capture_continuous(output, 'rgb', use_video_port=True): img = cv2.cvtColor(output.array, cv2.COLOR_RGB2BGR) cv2.imshow("img", img) cv2.waitKey(1) cv2.imwrite("test.jpg",img) r, g, b = (np.mean(output.array[..., i]) for i in range(3)) if abs(r - g) > 2: if r > g: rg -= 0.1 else: rg += 0.1 if abs(b - g) > 1: if b > g: bg -= 0.1 else: bg += 0.1 camera.awb_gains = (rg, bg) output.seek(0) output.truncate(0) if __name__=="__main__": test_gcamera()
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