The following operations are part of the pipeline.
The following operations are part of the pipeline.
Set of operations performing noise reduction. Choose the more suitable method based on your sample and define the diameter.
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Parameter |
Description |
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Channels |
Sets the processing and analysis target channel(s). |
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Method |
Sets the denoising algorithm. |
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Bilateral |
The Bilateral filtering can reduce the noise in an image while maintaining edges. A bilateral filtering blurs an image using both domain and range neighborhoods. |
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Discrete Gaussian |
The Discrete Gaussian filter blurs an image by convolution with a discrete Gaussian kernel. This method is fast, but blurs edges. |
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Flow-driven |
The curvature Flow-driven denoising filter is an anisotropic diffusion method used to reduce noise or unwanted detail in images while preserving specific image features. |
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Mean |
The Mean filter blurs the image by calculating a new intensity value for each pixel. The new intensity is equal to the average of the intensity values of the pixels in the local neighborhood. |
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Median |
The Median filter sets the intensity for each pixel to the median of the intensity values in the local neighborhood. The median is the intensity value and the center of the ordered sequence of all pixels in the local neighborhood. |
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Particle |
The Particle Enhancement Filter can be used to extract bright structures of a certain size from a noisy background. It convolves a given image with a special restoration kernel. |
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Diameter |
Sets the reference objects the reference objects diameter. |
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Allows the segments detection using one of the available automatic threshold methods.
By default, the Method: Auto is selected. Depending on the selection, different parameters are available.
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Parameter |
Description |
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|---|---|---|
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Channel |
Sets the processing and analysis target channel. |
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Method |
Sets the threshold algorithm. By default, Auto is selected. |
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Simple |
This method uses a single threshold and segments everything below or above it. |
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Range |
This method uses two Thresholds to define the range of intensities to segment. Everything outside of this range is neglected. |
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Percentile |
This method uses a single threshold and segments all intensities below or above it. The threshold is given as a percentile and is based on the data. |
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Percentile range |
This method uses two thresholds to define the range of intensities to segment. Everything outside of this range is neglected. The thresholds are given as percentiles and are based on the data. |
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Auto |
This method uses a single threshold and segments all intensities below or above it. The threshold is automatically calculated based on the data. |
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Adaptive mean |
This method uses local information around each pixel to set a threshold in relation to the local background. It is based on Niblack's thresholding method. |
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Mean |
This method uses local information around each pixel to set a threshold in relation to the local background. |
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Object type |
Sets whether to select light or dark objects, i.e., whether the threshold value should be below or above. |
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Bright |
Selects the bright objects. This is good for images with a dark background. |
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Dark |
Selects the dark objects. This is good for images with a bright background. |
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Thresholder |
Sets the auto algorithm to be used. |
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Otsu |
The algorithm maximizes the inter-class variance. |
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Huang |
The fuzzing threshold algorithm using the Shannon's entropy function. |
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Li |
The algorithm minimizes the cross-entropy. |
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Yen |
The algorithm is a 2-factor criterion-based automatic multilevel thresholding. |
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Range |
Sets the extent of the input data for the automatic threshold calculation. |
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Plane |
For each plane of the image set an individual threshold is calculated. |
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Time point |
For each time point of the image set an individual threshold is calculated. |
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Image set |
For the whole image set only one threshold is calculated. |
The previously detected objects are filtered by the selected feature (e.g., Volume). The used criteria can be set from the dropdown list. Multiple features can be set.
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Parameter |
Description |
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|---|---|---|
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Input |
Sets the filter input. If more than one segment operation is present in your pipeline, the correct input source must be set. |
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Is of type |
Sets the type of filter which filters the objects based on the selected type. By default, it is set on Any for all object types. The list of available features is updated accordingly. |
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Filter selection |
Sets the function for the segmentation is performed. |
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Criterion Settings |
These parameters depend on the selection of the filter. |
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+ Add Filter |
Allows to add a Simple, Ratio or Tag filter criterions. |
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The detected objects' positions are compared to verify its partial or total overlap conditions.
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Parameter |
Description |
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Inputs |
Sets the reference tag (first field) and the subject tag (second field). The subject segments are compared to the reference segments to verify if they match the criteria of compartmentalization. |
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Overlap method |
Sets the compartmentalization criteria. When you click on the icon, a new dialog appears. |
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Inside |
The subject objects must be completely included into the reference objects |
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Intersecting |
The subject objects must be included into the reference objects for the overlap percentage set. |
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Close |
The distance between the subject objects and the reference objects must be lower than the max distance value. |
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+ Add input |
Adds another hierarchical level. |
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Hierarchy |
Sets the hierarchy level of the input. |
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Output |
Sets the compartmentalization output. According to the compartmentalization criteria setup, each compartment result can be stored independently. |
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Store the detected segments (tag) in the active dataset.