In [1]:
from owslib.wps import WebProcessingService, monitorExecution, printInputOutput
from os import system
import time
from owslib.etree import etree
In [3]:
wps_url = "https://try.jupytepide.ga/pywps/wps"
wps = WebProcessingService(url=wps_url, verbose=False)
print (wps.identification.title + ':' + wps.version)
---------------------------------------------------------------------------
HTTPError Traceback (most recent call last)
<ipython-input-3-9b8cb42ce077> in <module>()
1 wps_url = "https://try.jupytepide.ga/pywps/wps"
----> 2 wps = WebProcessingService(url=wps_url, verbose=False)
3 print (wps.identification.title + ':' + wps.version)
/opt/conda/lib/python3.6/site-packages/owslib/wps.py in __init__(self, url, version, username, password, verbose, skip_caps)
210
211 if not skip_caps:
--> 212 self.getcapabilities()
213
214 def getcapabilities(self, xml=None):
/opt/conda/lib/python3.6/site-packages/owslib/wps.py in getcapabilities(self, xml)
226 else:
227 self._capabilities = reader.readFromUrl(
--> 228 self.url, username=self.username, password=self.password)
229
230 log.debug(element_to_string(self._capabilities))
/opt/conda/lib/python3.6/site-packages/owslib/wps.py in readFromUrl(self, url, username, password)
438 {'service': 'WPS', 'request':
439 'GetCapabilities', 'version': self.version},
--> 440 username=username, password=password)
441
442
/opt/conda/lib/python3.6/site-packages/owslib/wps.py in _readFromUrl(self, url, data, method, username, password)
396 spliturl = request_url.split('?')
397 u = openURL(spliturl[0], spliturl[
--> 398 1], method='Get', username=username, password=password)
399 return etree.fromstring(u.read())
400
/opt/conda/lib/python3.6/site-packages/owslib/util.py in openURL(url_base, data, method, cookies, username, password, timeout, headers)
184
185 if req.status_code in [404, 500, 502, 503, 504]: # add more if needed
--> 186 req.raise_for_status()
187
188 # check for service exceptions without the http header set
/opt/conda/lib/python3.6/site-packages/requests/models.py in raise_for_status(self)
937
938 if http_error_msg:
--> 939 raise HTTPError(http_error_msg, response=self)
940
941 def close(self):
HTTPError: 500 Server Error: INTERNAL SERVER ERROR for url: https://try.jupytepide.ga/pywps/wps?service=WPS&request=GetCapabilities&version=1.0.0
In [8]:
for process in wps.processes:
print ('%s : \t %s' % (process.identifier, process.abstract))
JTS:area : Returns the area of a geometry, in the units of the geometry. Assumes a Cartesian plane, so this process is only recommended for non-geographic CRSes.
JTS:boundary : Returns a geometry boundary. For polygons, returns a linear ring or multi-linestring equal to the boundary of the polygon(s). For linestrings, returns a multipoint equal to the endpoints of the linestring. For points, returns an empty geometry collection.
JTS:buffer : Returns a polygonal geometry representing the input geometry enlarged by a given distance around its exterior.
JTS:centroid : Returns the geometric centroid of a geometry. Output is a single point. The centroid point may be located outside the geometry.
JTS:contains : Tests if no points of the second geometry lie in the exterior of the first geometry and at least one point of the interior of second geometry lies in the interior of first geometry.
JTS:convexHull : Returns the smallest convex polygon that contains the entire input geometry.
JTS:crosses : Tests if two geometries have some, but not all, interior points in common.
JTS:densify : Returns a spatially equivalent geometry with vertices added to ensure line segments are no longer than a given distance.
JTS:difference : Returns a geometry representing the points that are contained in a geometry but not contained in a second geometry. The result may be a heterogeneous geometry collection.
JTS:dimension : Returns the largest dimension of a geometry or geometry collection: 0 for point, 1 for line, 2 for polygon.
JTS:disjoint : Tests if two geometries do not have any points in common.
JTS:distance : Returns the minimum distance between two geometries. Measurement is given in the input units, so geographic coordinates are not recommended.
JTS:endPoint : Returns a point geometry equal to the final vertex of a LineString.
JTS:envelope : Returns the smallest bounding box polygon that contains a geometry. For a point geometry, returns the same point.
JTS:equalsExact : Tests if two geometries are identical on a vertex-by-vertex basis.
JTS:equalsExactTolerance : Tests if two geometries are identical on a vertex-by-vertex basis, up to a vertex distance tolerance.
JTS:exteriorRing : Returns the exterior ring of a polygonal geometry.
JTS:geometryType : Returns the name of a geometry's type. Values are one of POINT, LINESTRING, POLYGON, MULTIPOINT, MULTILINESTRING, MULTIPOLYGON, GEOMETRYCOLLECTION.
JTS:getGeometryN : Returns the geometry element at a given index in a geometry collection. Indexing starts at 0.
JTS:getX : Returns the X value (first ordinate) for point geometries. For other geometry types returns the X value of the centroid.
JTS:getY : Returns the Y value (second ordinate) for point geometries. For other geometry types returns the Y value of the centroid.
JTS:interiorPoint : Returns a point that lies inside a geometry if possible, or that lies on its boundary.
JTS:interiorRingN : Returns a linear ring from a polygon containing interior rings (holes) determined by a given index. First interior ring has index 0. If no interior rings, returns null.
JTS:intersection : Returns a geometry representing the points that two geometries have in common. The result may be a heterogeneous geometry collection. If no intersection, returns an empty geometry.
JTS:intersects : Tests if two geometries intersect.
JTS:isClosed : Tests if the initial vertex equals the final vertex in a linear geometry. Points and polygons always return True.
JTS:isEmpty : Tests if a geometry contains no vertices.
JTS:isRing : Tests if a geometry is both closed and simple.
JTS:isSimple : Tests if a geometry is topologically simple. Points, polygons, closed line strings, and linear rings are always simple. Other geometries are considered simple if no two points are identical.
JTS:isValid : Tests if a geometry is topologically valid.
JTS:isWithinDistance : Tests if the minimum distance between two geometries is less than a tolerance value.
JTS:length : Returns the total length of all line segments in a geometry. Measurement is given in the source units, so geographic coordinates are not recommended.
JTS:numGeometries : Returns the total number of elements in a geometry collection. If not a geometry collection, returns 1. If empty, returns 0.
JTS:numInteriorRing : Returns the total number of interior rings in a polygonal geometry. Points and lines return 0.
JTS:numPoints : Returns the number of vertices in a given geometry.
JTS:overlaps : Tests if two geometries share some but not all interior points. Points or lines will always return False.
JTS:pointN : Returns a point geometry equal to the Nth vertex in a geometry as determined by a given index. First vertex has index 0.
JTS:polygonize : Creates a set of polygons from linestrings delineating them. The linestrings must be corrctly noded (i.e. touch only at endpoints).
JTS:relate : Returns the DE-9IM intersection matrix string for the spatial relationship between the input geometries. The matrix string is in the form [II][IB][IE][BI][BB][BE][EI][EB][EE] where I=interior, B=boundary, and E=exterior. Matrix symbols are 2, 1, 0 or F.
JTS:relatePattern : Tests if the spatial relationship between two geometries matches the given DE-9IM intersection matrix pattern. The pattern is given in the form [II][IB][IE][BI][BB][BE][EI][EB][EE] where I=interior, B=boundary, and E=exterior. Pattern symbols can be 2, 1, 0, F or *.
JTS:reproject : Reprojects a given geometry into a supplied coordinate reference system.
JTS:simplify : Returns a geometry that has been simplified (reduced in vertices) according to the Douglas-Peucker algorithm.
JTS:splitPolygon : Splits a polygon by a linestring
JTS:startPoint : Returns a point geometry equal to the first vertex of a LineString.
JTS:symDifference : Returns a geometry representing the points contained in either one of two geometries but not in both. The result may be a heterogeneous geometry collection.
JTS:touches : Tests if two geometries have at least one boundary point in common, but share no interior points.
JTS:union : Returns a geometry representing all points contained in any of the geometries in a geometry collection.
JTS:within : Tests if the first geometry is contained in the second geometry.
geo:area : Returns the area of a geometry, in the units of the geometry. Assumes a Cartesian plane, so this process is only recommended for non-geographic CRSes.
geo:boundary : Returns a geometry boundary. For polygons, returns a linear ring or multi-linestring equal to the boundary of the polygon(s). For linestrings, returns a multipoint equal to the endpoints of the linestring. For points, returns an empty geometry collection.
geo:buffer : Returns a polygonal geometry representing the input geometry enlarged by a given distance around its exterior.
geo:centroid : Returns the geometric centroid of a geometry. Output is a single point. The centroid point may be located outside the geometry.
geo:contains : Tests if no points of the second geometry lie in the exterior of the first geometry and at least one point of the interior of second geometry lies in the interior of first geometry.
geo:convexHull : Returns the smallest convex polygon that contains the entire input geometry.
geo:crosses : Tests if two geometries have some, but not all, interior points in common.
geo:densify : Returns a spatially equivalent geometry with vertices added to ensure line segments are no longer than a given distance.
geo:difference : Returns a geometry representing the points that are contained in a geometry but not contained in a second geometry. The result may be a heterogeneous geometry collection.
geo:dimension : Returns the largest dimension of a geometry or geometry collection: 0 for point, 1 for line, 2 for polygon.
geo:disjoint : Tests if two geometries do not have any points in common.
geo:distance : Returns the minimum distance between two geometries. Measurement is given in the input units, so geographic coordinates are not recommended.
geo:endPoint : Returns a point geometry equal to the final vertex of a LineString.
geo:envelope : Returns the smallest bounding box polygon that contains a geometry. For a point geometry, returns the same point.
geo:equalsExact : Tests if two geometries are identical on a vertex-by-vertex basis.
geo:equalsExactTolerance : Tests if two geometries are identical on a vertex-by-vertex basis, up to a vertex distance tolerance.
geo:exteriorRing : Returns the exterior ring of a polygonal geometry.
geo:geometryType : Returns the name of a geometry's type. Values are one of POINT, LINESTRING, POLYGON, MULTIPOINT, MULTILINESTRING, MULTIPOLYGON, GEOMETRYCOLLECTION.
geo:getGeometryN : Returns the geometry element at a given index in a geometry collection. Indexing starts at 0.
geo:getX : Returns the X value (first ordinate) for point geometries. For other geometry types returns the X value of the centroid.
geo:getY : Returns the Y value (second ordinate) for point geometries. For other geometry types returns the Y value of the centroid.
geo:interiorPoint : Returns a point that lies inside a geometry if possible, or that lies on its boundary.
geo:interiorRingN : Returns a linear ring from a polygon containing interior rings (holes) determined by a given index. First interior ring has index 0. If no interior rings, returns null.
geo:intersection : Returns a geometry representing the points that two geometries have in common. The result may be a heterogeneous geometry collection. If no intersection, returns an empty geometry.
geo:intersects : Tests if two geometries intersect.
geo:isClosed : Tests if the initial vertex equals the final vertex in a linear geometry. Points and polygons always return True.
geo:isEmpty : Tests if a geometry contains no vertices.
geo:isRing : Tests if a geometry is both closed and simple.
geo:isSimple : Tests if a geometry is topologically simple. Points, polygons, closed line strings, and linear rings are always simple. Other geometries are considered simple if no two points are identical.
geo:isValid : Tests if a geometry is topologically valid.
geo:isWithinDistance : Tests if the minimum distance between two geometries is less than a tolerance value.
geo:length : Returns the total length of all line segments in a geometry. Measurement is given in the source units, so geographic coordinates are not recommended.
geo:numGeometries : Returns the total number of elements in a geometry collection. If not a geometry collection, returns 1. If empty, returns 0.
geo:numInteriorRing : Returns the total number of interior rings in a polygonal geometry. Points and lines return 0.
geo:numPoints : Returns the number of vertices in a given geometry.
geo:overlaps : Tests if two geometries share some but not all interior points. Points or lines will always return False.
geo:pointN : Returns a point geometry equal to the Nth vertex in a geometry as determined by a given index. First vertex has index 0.
geo:polygonize : Creates a set of polygons from linestrings delineating them. The linestrings must be corrctly noded (i.e. touch only at endpoints).
geo:relate : Returns the DE-9IM intersection matrix string for the spatial relationship between the input geometries. The matrix string is in the form [II][IB][IE][BI][BB][BE][EI][EB][EE] where I=interior, B=boundary, and E=exterior. Matrix symbols are 2, 1, 0 or F.
geo:relatePattern : Tests if the spatial relationship between two geometries matches the given DE-9IM intersection matrix pattern. The pattern is given in the form [II][IB][IE][BI][BB][BE][EI][EB][EE] where I=interior, B=boundary, and E=exterior. Pattern symbols can be 2, 1, 0, F or *.
geo:reproject : Reprojects a given geometry into a supplied coordinate reference system.
geo:simplify : Returns a geometry that has been simplified (reduced in vertices) according to the Douglas-Peucker algorithm.
geo:splitPolygon : Splits a polygon by a linestring
geo:startPoint : Returns a point geometry equal to the first vertex of a LineString.
geo:symDifference : Returns a geometry representing the points contained in either one of two geometries but not in both. The result may be a heterogeneous geometry collection.
geo:touches : Tests if two geometries have at least one boundary point in common, but share no interior points.
geo:union : Returns a geometry representing all points contained in any of the geometries in a geometry collection.
geo:within : Tests if the first geometry is contained in the second geometry.
gs:AddCoverages : Returns a raster generated by pixel-by-pixel addition of two source rasters. Source rasters must have the same bounding box and resolution.
gs:Aggregate : Computes one or more aggregation functions on a feature attribute. Functions include Count, Average, Max, Median, Min, StdDev, and Sum.
gs:AreaGrid : Computes a raster grid of given geographic extent with cell values equal to the area the cell represents on the surface of the earth. Area is computed using the EckertIV projection.
gs:BarnesSurface : Uses Barnes Analysis to compute an interpolated surface over a set of irregular data points.
gs:Bounds : Computes the bounding box of the input features.
gs:BufferFeatureCollection : Buffers features by a distance value supplied either as a parameter or by a feature attribute. Calculates buffers based on Cartesian distances.
gs:Centroid : Computes the geometric centroids of features
gs:Clip : Clips (crops) features to a given geometry
gs:CollectGeometries : Collects the deafult geometries of the input features and combines them into a single geometry collection
gs:Contour : Computes contour lines at specified intervals or levels for the values in a raster.
gs:Count : Computes the number of features in a feature collection.
gs:CropCoverage : Returns the portion of a raster bounded by a given geometry.
gs:Feature : Converts a geometry into a feature collection.
gs:GeorectifyCoverage : Georectifies a raster via Ground Control Points using gdal_warp
gs:GetFullCoverage : Returns a raster from the catalog, with optional filtering
gs:Grid : Generates a georeferenced regular grid of cells. Output contains the attributes: cell - the cell polygon; id - a unique identifier; centerX and centerY - the ordinates of the cell center.
gs:Heatmap : Computes a heatmap surface over a set of data points and outputs as a single-band raster.
gs:Import : Imports a feature collection into the catalog
gs:InclusionFeatureCollection : Returns a feature collection consisting of the features from the first collection which are spatially contained in at least one feature of the second collection.
gs:IntersectionFeatureCollection : Spatial intersection of two feature collections, incuding combining attributes from both.
gs:LRSGeocode : Extracts points at a given measure from LRS features
gs:LRSMeasure : Computes the measure of a point along a feature (as feature with attribute lrs_measure). The point is measured along the nearest feature.
gs:LRSSegment : Extracts segment between a given start and end measure from LRS features
gs:MultiplyCoverages : Returns a raster generated by pixel-by-pixel multiplication of two source rasters. Source rasters must have the same bounding box and resolution.
gs:Nearest : Returns the feature in a given feature collection that has the smallest distance to a given point.
gs:PagedUnique : Gets the list of unique values for the given featurecollection on a specified field, allows optional paging
gs:PointBuffers : Returns a collection of circular buffer polygons with specified radii centered on a given point
gs:PointStacker : Aggregates a collection of points over a grid into one point per grid cell.
gs:PolygonExtraction : Extracts vector polygons from a raster, based on regions which are equal or in given ranges
gs:Query : Queries a feature collection using an optional filter and an optional list of attributes to include. Can also be used to convert feature collection format.
gs:RangeLookup : Reclassifies a continous raster into integer values defined by a set of ranges
gs:RasterAsPointCollection : Returns a collection of point features for the pixels of a raster. The band values are provided as attributes.
gs:RasterZonalStatistics : Computes statistics for the distribution of a certain quantity in a set of polygonal zones.
gs:RectangularClip : Clips (crops) features to the specified rectangular extent
gs:Reproject : Reprojects features into a supplied coordinate reference system. Can also force a feature collection to have a given CRS.
gs:ReprojectGeometry : Reprojects a given geometry into a supplied coordinate reference system.
gs:ScaleCoverage : Returns a scaled and translated version of a given raster
gs:Simplify : Simplifies feature geometry by reducing vertices using Douglas-Peucker simplification.
gs:Snap : Returns the feature in a feature collection nearest to a given point. Attributes for distance and bearing are added.
gs:StoreCoverage : Stores a raster on the server.
gs:StyleCoverage : Styles a raster using a given SLD and raster symbolizer.
gs:Transform : Computes a new feature collection from the input one by renaming, deleting, and computing new attributes. Attribute values are specified as ECQL expressions in the form name=expression.
gs:UnionFeatureCollection : Returns single feature collection containing all features from two input feature collections. The output attribute schema is a combination of the attributes from the inputs. Attributes with same name but different types will be converted to strings.
gs:Unique : Returns the unique values of a given attribute in a feature collection.
gs:VectorZonalStatistics : Computes statistics for the distribution of a given attribute in a set of polygonal zones. Input must be points.
gt:VectorToRaster : Converts some or all of a feature collection to a raster grid, using an attribute to specify cell values.
ras:AddCoverages : Returns a raster generated by pixel-by-pixel addition of two source rasters. Source rasters must have the same bounding box and resolution.
ras:Affine : Returns the result of an Affine transformation on the input raster.
ras:AreaGrid : Computes a raster grid of given geographic extent with cell values equal to the area the cell represents on the surface of the earth. Area is computed using the EckertIV projection.
ras:BandMerge : Returns a raster generated by the merge of the input raster bands. Source rasters must have the same CRS.
ras:BandSelect : Returns a raster generated by the selection of some bands from the input raster.
ras:Contour : Computes contour lines at specified intervals or levels for the values in a raster.
ras:CoverageClassStats : Calculates statistics from coverage values classified into bins/classes.
ras:CropCoverage : Returns the portion of a raster bounded by a given geometry.
ras:MultiplyCoverages : Returns a raster generated by pixel-by-pixel multiplication of two source rasters. Source rasters must have the same bounding box and resolution.
ras:NormalizeCoverage : Normalizes a coverage by dividing values by the max value
ras:PolygonExtraction : Extracts vector polygons from a raster, based on regions which are equal or in given ranges
ras:RangeLookup : Reclassifies a continous raster into integer values defined by a set of ranges
ras:RasterAsPointCollection : Returns a collection of point features for the pixels of a raster. The band values are provided as attributes.
ras:RasterZonalStatistics : Computes statistics for the distribution of a certain quantity in a set of polygonal zones.
ras:ScaleCoverage : Returns a scaled and translated version of a given raster
ras:StyleCoverage : Styles a raster using a given SLD and raster symbolizer.
ras:TransparencyFill : Fill transparent pixels
vec:Aggregate : Computes one or more aggregation functions on a feature attribute. Functions include Count, Average, Max, Median, Min, StdDev, and Sum.
vec:BarnesSurface : Uses Barnes Analysis to compute an interpolated surface over a set of irregular data points.
vec:Bounds : Computes the bounding box of the input features.
vec:BufferFeatureCollection : Buffers features by a distance value supplied either as a parameter or by a feature attribute. Calculates buffers based on Cartesian distances.
vec:Centroid : Computes the geometric centroids of features
vec:Clip : Clips (crops) features to a given geometry
vec:CollectGeometries : Collects the deafult geometries of the input features and combines them into a single geometry collection
vec:Count : Computes the number of features in a feature collection.
vec:Feature : Converts a geometry into a feature collection.
vec:FeatureClassStats : Calculates statistics from feature values classified into bins/classes.
vec:Grid : Generates a georeferenced regular grid of cells. Output contains the attributes: cell - the cell polygon; id - a unique identifier; centerX and centerY - the ordinates of the cell center.
vec:Heatmap : Computes a heatmap surface over a set of data points and outputs as a single-band raster.
vec:InclusionFeatureCollection : Returns a feature collection consisting of the features from the first collection which are spatially contained in at least one feature of the second collection.
vec:IntersectionFeatureCollection : Spatial intersection of two feature collections, incuding combining attributes from both.
vec:LRSGeocode : Extracts points at a given measure from LRS features
vec:LRSMeasure : Computes the measure of a point along a feature (as feature with attribute lrs_measure). The point is measured along the nearest feature.
vec:LRSSegment : Extracts segment between a given start and end measure from LRS features
vec:Nearest : Returns the feature in a given feature collection that has the smallest distance to a given point.
vec:PointBuffers : Returns a collection of circular buffer polygons with specified radii centered on a given point
vec:PointStacker : Aggregates a collection of points over a grid into one point per grid cell.
vec:Query : Queries a feature collection using an optional filter and an optional list of attributes to include. Can also be used to convert feature collection format.
vec:RectangularClip : Clips (crops) features to the specified rectangular extent
vec:Reproject : Reprojects features into a supplied coordinate reference system. Can also force a feature collection to have a given CRS.
vec:Simplify : Simplifies feature geometry by reducing vertices using Douglas-Peucker simplification.
vec:Snap : Returns the feature in a feature collection nearest to a given point. Attributes for distance and bearing are added.
vec:Transform : Computes a new feature collection from the input one by renaming, deleting, and computing new attributes. Attribute values are specified as ECQL expressions in the form name=expression.
vec:UnionFeatureCollection : Returns single feature collection containing all features from two input feature collections. The output attribute schema is a combination of the attributes from the inputs. Attributes with same name but different types will be converted to strings.
vec:Unique : Returns the unique values of a given attribute in a feature collection.
vec:VectorToRaster : Converts some or all of a feature collection to a raster grid, using an attribute to specify cell values.
vec:VectorZonalStatistics : Computes statistics for the distribution of a given attribute in a set of polygonal zones. Input must be points.
In [9]:
p = wps.describeprocess(identifier='ras:Contour')
print("Inputs")
for input in p.dataInputs:
printInputOutput(input)
print ('\n')
print("Outputs")
for output in p.processOutputs:
printInputOutput(output)
print ('\n')
Inputs
identifier=data, title=data, abstract=Input raster, data type=ComplexData
Supported Value: mimeType=image/tiff, encoding=base64, schema=None
Supported Value: mimeType=application/arcgrid, encoding=None, schema=None
Default Value: mimeType=image/tiff, encoding=None, schema=None
minOccurs=1, maxOccurs=1
identifier=band, title=band, abstract=Name of band to use for values to be contoured, data type=int
Any value allowed
Default Value: None
minOccurs=0, maxOccurs=1
identifier=levels, title=levels, abstract=Values of levels at which to generate contours, data type=double
Any value allowed
Default Value: None
minOccurs=0, maxOccurs=2147483647
identifier=interval, title=interval, abstract=Interval between contour values (ignored if levels parameter is supplied), data type=double
Default Value: None
minOccurs=0, maxOccurs=1
identifier=simplify, title=simplify, abstract=Indicates whether contour lines are simplified, data type=boolean
Any value allowed
Default Value: None
minOccurs=0, maxOccurs=1
identifier=smooth, title=smooth, abstract=Indicates whether contour lines are smoothed using Bezier smoothing, data type=boolean
Any value allowed
Default Value: None
minOccurs=0, maxOccurs=1
identifier=roi, title=roi, abstract=Geometry delineating the region of interest (in raster coordinate system), data type=ComplexData
Supported Value: mimeType=text/xml; subtype=gml/3.1.1, encoding=None, schema=None
Supported Value: mimeType=text/xml; subtype=gml/2.1.2, encoding=None, schema=None
Supported Value: mimeType=application/wkt, encoding=None, schema=None
Supported Value: mimeType=application/json, encoding=None, schema=None
Supported Value: mimeType=application/gml-3.1.1, encoding=None, schema=None
Supported Value: mimeType=application/gml-2.1.2, encoding=None, schema=None
Default Value: mimeType=text/xml; subtype=gml/3.1.1, encoding=None, schema=None
minOccurs=0, maxOccurs=1
Outputs
identifier=result, title=result, abstract=None, data type=ComplexData
Supported Value: mimeType=text/xml; subtype=wfs-collection/1.0, encoding=None, schema=None
Supported Value: mimeType=text/xml; subtype=wfs-collection/1.1, encoding=None, schema=None
Supported Value: mimeType=application/json, encoding=None, schema=None
Supported Value: mimeType=application/wfs-collection-1.0, encoding=None, schema=None
Supported Value: mimeType=application/wfs-collection-1.1, encoding=None, schema=None
Supported Value: mimeType=application/zip, encoding=None, schema=None
Default Value: mimeType=text/xml; subtype=wfs-collection/1.0, encoding=None, schema=None
reference=None, mimeType=None
Content source: wasat/JupyTEPIDE
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