# components.parameters.bbox.description
Only features that have a geometry that intersects the bounding box are selected.The bounding box is provided as four or six numbers, depending on whether the coordinate reference system includes a vertical axis (height or depth).

# components.parameters.bbox-crs.description
Indicates the coordinate reference system for the given bbox coordinates.

# components.parameters.bbox-crs-epsg.description
Indicates the EPSG for the given bbox coordinates.

# components.parameters.crs.description
Indicates the coordinate reference system for the results.

# components.parameters.f.description
The optional f parameter indicates the output format which the server shall provide as part of the response document.  The default format is GeoJSON.

# components.parameters.lang.description
The optional lang parameter instructs the server return a response in a certain language, if supported.  If the language is not among the available values, the Accept-Language header language will be used if it is supported. If the header is missing, the default server language is used. Note that providers may only support a single language (or often no language at all), that can be different from the server language.  Language strings can be written in a complex (e.g. "fr-CA,fr;q=0.9,en-US;q=0.8,en;q=0.7"), simple (e.g. "de") or locale-like (e.g. "de-CH" or "fr_BE") fashion.

# components.parameters.offset.description
The optional offset parameter indicates the index within the result set from which the server shall begin presenting results in the response document.  The first element has an index of 0 (default).

# components.parameters.properties.description
The properties that should be included. The parameter value is a comma-separated list of property names.

# components.parameters.skipGeometry.description
This option can be used to skip response geometries for each feature.

# components.parameters.vendorSpecificParameters.description
Additional "free-form" parameters that are not explicitly defined

# components.schemas.queryable.properties.description.description
a human-readable narrative describing the queryable

# components.schemas.queryable.properties.language.description
the language used for the title and description

# components.schemas.queryable.properties.queryable.description
the token that may be used in a CQL predicate

# components.schemas.queryable.properties.title.description
a human readable title for the queryable

# components.schemas.queryable.properties.type-ref.description
a reference to the formal definition of the type

# info.contact.x-ogc-serviceContact.contactInstructions
During hours of service. Off on weekends.

# info.description
pygeoapi fornisce API a dati geospaziali - In Geo-INQUIRE sono implementati servizi di processing

# info.title
Geo-INQUIRE Saas WP5 (based on pygeoapi)

# paths./processes/conduit.get.description
CONDUIT4 is a Fortran code for computing the one-dimensional, steady, isothermal, multiphase and multicomponent flow of magma in volcanic conduits. The code solves the compressible mass balance and momentum balance equations separately for a gas phase and a dense phase constituted by liquid+crystals (below fragmentation), or by pyroclasts (above fragmentation). A user-defined fragmentation efficiency parameter describes the relative amounts of non-vesicular ash, vesicular pumice, and free crystals generated at fragmentation; while another user-defined parameter describes pumice degassing disequilibrium. The model takes either choked flow or atmospheric pressure conditions at the conduit exit, with the alternative being part of the solution thus depending on the selected conditions. The numerical algorithm searches for such an exit condition by adapting the mass flow-rate to the selected conduit diameter. Thermodynamic equilibrium phase between the gas (H2O+CO2) and the silicate melt is calculated through the SOLWCAD model (Papale et al., 2006, [Chemical Geology, 229(1-3), 78-95]), implemented within CONDUIT4. Magma fragmentation is determined based on Maxwell's theory for visco-elastic materials, as described in Papale (1999) [Nature, 397(6718), 425-428]. The viscosity of the liquid is calculated according to Giordano et al. (2008) [Earth and Planetary Science Letters, 271.1-4: 123-134], and the effect of crystals on viscosity is based on the model of Costa et al. (2009) [Geochemistry, Geophysics, Geosystems, 10(3)]. The transport and constitutive equations, as well as the numerical approach, are detailed in Papale (2001) [Journal of Geophysical Research: Solid Earth, 106(B6), 11043-11065].

# paths./processes/conduit/execution.post.description
CONDUIT4 is a Fortran code for computing the one-dimensional, steady, isothermal, multiphase and multicomponent flow of magma in volcanic conduits. The code solves the compressible mass balance and momentum balance equations separately for a gas phase and a dense phase constituted by liquid+crystals (below fragmentation), or by pyroclasts (above fragmentation). A user-defined fragmentation efficiency parameter describes the relative amounts of non-vesicular ash, vesicular pumice, and free crystals generated at fragmentation; while another user-defined parameter describes pumice degassing disequilibrium. The model takes either choked flow or atmospheric pressure conditions at the conduit exit, with the alternative being part of the solution thus depending on the selected conditions. The numerical algorithm searches for such an exit condition by adapting the mass flow-rate to the selected conduit diameter. Thermodynamic equilibrium phase between the gas (H2O+CO2) and the silicate melt is calculated through the SOLWCAD model (Papale et al., 2006, [Chemical Geology, 229(1-3), 78-95]), implemented within CONDUIT4. Magma fragmentation is determined based on Maxwell's theory for visco-elastic materials, as described in Papale (1999) [Nature, 397(6718), 425-428]. The viscosity of the liquid is calculated according to Giordano et al. (2008) [Earth and Planetary Science Letters, 271.1-4: 123-134], and the effect of crystals on viscosity is based on the model of Costa et al. (2009) [Geochemistry, Geophysics, Geosystems, 10(3)]. The transport and constitutive equations, as well as the numerical approach, are detailed in Papale (2001) [Journal of Geophysical Research: Solid Earth, 106(B6), 11043-11065].

# paths./processes/conduit/execution.post.parameters[].description
Indicates client preferences, including whether the client is capable of asynchronous processing.

# paths./processes/pybox.get.description
PyBOX is a Python software for simulating the propagation of gravity-driven pyroclastic density currents (PDCs) using a box-model approach. It predicts two-dimensional inundation areas using the energy-conoid method and topography derived from the Copernicus GLO-30 Digital Elevation Model (DEM), a DSM-product. Simulations support multiple particle-size classes

# paths./processes/pybox/execution.post.description
PyBOX is a Python software for simulating the propagation of gravity-driven pyroclastic density currents (PDCs) using a box-model approach. It predicts two-dimensional inundation areas using the energy-conoid method and topography derived from the Copernicus GLO-30 Digital Elevation Model (DEM), a DSM-product. Simulations support multiple particle-size classes

# paths./processes/pybox/execution.post.parameters[].description
Indicates client preferences, including whether the client is capable of asynchronous processing.

# paths./processes/solwcad.get.description
Fortran code to compute the saturation surface of H2O-CO2 fluids in silicate melts of arbitrary composition.

# paths./processes/solwcad/execution.post.description
Fortran code to compute the saturation surface of H2O-CO2 fluids in silicate melts of arbitrary composition.

# paths./processes/solwcad/execution.post.parameters[].description
Indicates client preferences, including whether the client is capable of asynchronous processing.

# servers[].description
pygeoapi fornisce API a dati geospaziali - In Geo-INQUIRE sono implementati servizi di processing

# tags[].description
pygeoapi fornisce API a dati geospaziali - In Geo-INQUIRE sono implementati servizi di processing