FIELDimageR | R package to analyze orthomosaic images
kandi X-RAY | FIELDimageR Summary
kandi X-RAY | FIELDimageR Summary
FIELDimageR is a R library. FIELDimageR has no bugs, it has no vulnerabilities, it has a Strong Copyleft License and it has low support. You can download it from GitHub.
Taking the first step:. It is necessary to first reduce the image/mosaic size around the field boundaries for faster image analysis. Function to use: fieldCrop. The following example uses an image available to download here: EX1_RGB.tif. To build the plot shape file first we need to make sure that the image base line (dashed in red) has a correct straight position (vertical or horizontal). If not, it is necessary to find the right-angle theta to rotate the field, fieldRotate allows you to click directly on the image and select two points on where you want to base your field and return the theta value to finally rotate the image. The presence of soil can introduce bias in the data extracted from the image. Therefore, removing soil from the image is one of the most important steps for image analysis in agricultural science. Function to use: fieldMask. Once the field has reached a correct straight position, the plot shape file can be drawn by selecting at least four points at the corners of the experiment. The number of columns and rows must be informed. At this point the experimental borders can be eliminated, in the example bellow the borders were removed in all the sides. Function to use: fieldShape. Attention: The plots are identified in ascending order from left to right and top to bottom being evenly spaced and distributed inside the selected area independent of alleys. One matrix can be used to identify the plots position according to the image above. The function fieldMap can be used to specify the plot ID automatic or any other matrix (manually built) also can be used. For instance, the new column PlotName will be the new identification. You can download an external table example here: DataTable.csv. Important: Code showing how to make ShapeFile using original GIS.
Taking the first step:. It is necessary to first reduce the image/mosaic size around the field boundaries for faster image analysis. Function to use: fieldCrop. The following example uses an image available to download here: EX1_RGB.tif. To build the plot shape file first we need to make sure that the image base line (dashed in red) has a correct straight position (vertical or horizontal). If not, it is necessary to find the right-angle theta to rotate the field, fieldRotate allows you to click directly on the image and select two points on where you want to base your field and return the theta value to finally rotate the image. The presence of soil can introduce bias in the data extracted from the image. Therefore, removing soil from the image is one of the most important steps for image analysis in agricultural science. Function to use: fieldMask. Once the field has reached a correct straight position, the plot shape file can be drawn by selecting at least four points at the corners of the experiment. The number of columns and rows must be informed. At this point the experimental borders can be eliminated, in the example bellow the borders were removed in all the sides. Function to use: fieldShape. Attention: The plots are identified in ascending order from left to right and top to bottom being evenly spaced and distributed inside the selected area independent of alleys. One matrix can be used to identify the plots position according to the image above. The function fieldMap can be used to specify the plot ID automatic or any other matrix (manually built) also can be used. For instance, the new column PlotName will be the new identification. You can download an external table example here: DataTable.csv. Important: Code showing how to make ShapeFile using original GIS.
Support
Quality
Security
License
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Support
FIELDimageR has a low active ecosystem.
It has 125 star(s) with 48 fork(s). There are 33 watchers for this library.
It had no major release in the last 6 months.
There are 3 open issues and 6 have been closed. On average issues are closed in 190 days. There are 1 open pull requests and 0 closed requests.
It has a neutral sentiment in the developer community.
The latest version of FIELDimageR is current.
Quality
FIELDimageR has 0 bugs and 0 code smells.
Security
FIELDimageR has no vulnerabilities reported, and its dependent libraries have no vulnerabilities reported.
FIELDimageR code analysis shows 0 unresolved vulnerabilities.
There are 0 security hotspots that need review.
License
FIELDimageR is licensed under the GPL-2.0 License. This license is Strong Copyleft.
Strong Copyleft licenses enforce sharing, and you can use them when creating open source projects.
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FIELDimageR releases are not available. You will need to build from source code and install.
Installation instructions, examples and code snippets are available.
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FIELDimageR Key Features
No Key Features are available at this moment for FIELDimageR.
FIELDimageR Examples and Code Snippets
No Code Snippets are available at this moment for FIELDimageR.
Community Discussions
No Community Discussions are available at this moment for FIELDimageR.Refer to stack overflow page for discussions.
Community Discussions, Code Snippets contain sources that include Stack Exchange Network
Vulnerabilities
No vulnerabilities reported
Install FIELDimageR
If desired, one can build a rocker/rstudio based Docker image with all the requirements already installed by using the Dockerfile in this repository. First of all, install R and RStudio. Then, in order to install R/FIELDimageR from GitHub GitHub repository, you need to install the following packages in R. devtools sp raster rgdal scales xml2 git2r usethis fftwtools. Now install R/FIELDimageR using the install_github function from devtools package. If necessary, use the argument type="source". If the method above doesn't work, use the next lines by downloading the FIELDimageR-master.zip file. When building the Docker image you will need the Dockerfile in this repository available on the local machine. Another requirement is that Docker is installed on the machine as well.
devtools
sp
raster
rgdal
scales
xml2
git2r
usethis
fftwtools
docker is the Docker command itself
build tells Docker that we want to build an image
-t indicates that we will be specifying then tag (name) of the created image
fieldimager is the tag (name) of the image and can be any acceptable name; this needs to immediately follow the -t parameter
-f indicates that we will be providing the name of the Dockerfile containing the instructions for building the image
./Dockerfile is the full path to the Dockerfile containing the instructions (in this case, it's in the current folder); this needs to immediately follow the -f parameter
./ specifies that Docker build should use the current folder as needed (required by Docker build)
Install Xorg dependencies for the plot system (on conda shell)
Install the BiocManager package manager
Use the BiocManager to install the EBIMAGE package
If there is an error in the fftw3 library header (fftw3.h) install the dependency (on conda shell)
If there is an error in the dependency doParallel
Continue installation
devtools
sp
raster
rgdal
scales
xml2
git2r
usethis
fftwtools
docker is the Docker command itself
build tells Docker that we want to build an image
-t indicates that we will be specifying then tag (name) of the created image
fieldimager is the tag (name) of the image and can be any acceptable name; this needs to immediately follow the -t parameter
-f indicates that we will be providing the name of the Dockerfile containing the instructions for building the image
./Dockerfile is the full path to the Dockerfile containing the instructions (in this case, it's in the current folder); this needs to immediately follow the -f parameter
./ specifies that Docker build should use the current folder as needed (required by Docker build)
Install Xorg dependencies for the plot system (on conda shell)
Install the BiocManager package manager
Use the BiocManager to install the EBIMAGE package
If there is an error in the fftw3 library header (fftw3.h) install the dependency (on conda shell)
If there is an error in the dependency doParallel
Continue installation
Support
For any new features, suggestions and bugs create an issue on GitHub.
If you have any questions check and ask questions on community page Stack Overflow .
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