Table of Contents
This chapter details the steps required to install PostGIS.
To compile assuming you have all the dependencies in your search path:
tar xvfz postgis-2.3.10dev.tar.gz cd postgis-2.3.10dev ./configure make make install
Once postgis is installed, it needs to be enabled in each individual database you want to use it in.
The raster support is currently optional, but installed by default. For enabling using the PostgreSQL 9.1+ extensions model raster is required. Using the extension enable process is preferred and more user-friendly. To spatially enable your database:
psql -d yourdatabase -c "CREATE EXTENSION postgis;" psql -d yourdatabase -c "CREATE EXTENSION postgis_topology;" -- if you built with sfcgal support -- psql -d yourdatabase -c "CREATE EXTENSION postgis_sfcgal;" -- if you want to install tiger geocoder -- psql -d yourdatabase -c "CREATE EXTENSION fuzzystrmatch" psql -d yourdatabase -c "CREATE EXTENSION postgis_tiger_geocoder;" -- if you installed with pcre -- you should have address standardizer extension as well psql -d yourdatabase -c "CREATE EXTENSION address_standardizer;"
Please refer to Section 2.4.3, “Building PostGIS Extensions and Deploying them” for more details about querying installed/available extensions and upgrading extensions, or switching from a non-extension install to an extension install.
For those running who decided for some reason not to compile with raster support, or just are old-fashioned, here are longer more painful instructions for you:
All the .sql files once installed will be installed in share/contrib/postgis-2.2 folder of your PostgreSQL install
createdb yourdatabase createlang plpgsql yourdatabase psql -d yourdatabase -f postgis.sql psql -d yourdatabase -f postgis_comments.sql psql -d yourdatabase -f spatial_ref_sys.sql psql -d yourdatabase -f topology.sql psql -d yourdatabase -f topology_comments.sql -- only if you compiled with raster (GDAL) psql -d yourdatabase -f rtpostgis.sql psql -d yourdatabase -f raster_comments.sql --if you built with sfcgal support -- psql -d yourdatabase -f sfcgal.sql psql -d yourdatabase -f sfcgal_comments.sql
The rest of this chapter goes into detail each of the above installation steps.
As of PostGIS 2.1.3, out-of-db rasters and all raster drivers are disabled by default. In order to re-enable these, you need to set the following environment variables
POSTGIS_ENABLE_OUTDB_RASTERS in the server environment. For PostGIS 2.2, you can use the more cross-platform approach of setting the corresponding Section 8.2, “PostGIS Grand Unified Custom Variables (GUCs)”.
If you want to enable offline raster:
Any other setting or no setting at all will disable out of db rasters.
In order to enable all GDAL drivers available in your GDAL install, set this environment variable as follows
If you want to only enable specific drivers, set your environment variable as follows:
POSTGIS_GDAL_ENABLED_DRIVERS="GTiff PNG JPEG GIF XYZ"
If you are on windows, do not quote the driver list
Setting environment variables varies depending on OS. For PostgreSQL installed on Ubuntu or Debian via apt-postgresql, the preferred way is to
/etc/postgresql/ where 9.3 refers to version of PostgreSQL and main refers to the cluster.
On windows, if you are running as a service, you can set via System variables which for Windows 7 you can get to by right-clicking on Computer->Properties Advanced System Settings or in explorer navigating to
Control Panel\All Control Panel Items\System.
Then clicking Advanced System Settings ->Advanced->Environment Variables and adding new system variables.
After you set the environment variables, you'll need to restart your PostgreSQL service for the changes to take effect.
PostGIS has the following requirements for building and usage:
PostgreSQL 9.2 and <= PostgreSQL 9.6. A complete installation of PostgreSQL (including server headers) is required. PostgreSQL is available from http://www.postgresql.org .
For a full PostgreSQL / PostGIS support matrix and PostGIS/GEOS support matrix refer to http://trac.osgeo.org/postgis/wiki/UsersWikiPostgreSQLPostGIS
GNU C compiler (
gcc). Some other ANSI C compilers
can be used to compile PostGIS, but we find far fewer problems when
GNU Make (
For many systems, GNU
make is the default version
of make. Check the version by invoking
Other versions of
make may not process the
Proj4 reprojection library, version 4.6.0 or greater. The Proj4 library is used to provide coordinate reprojection support within PostGIS. Proj4 is available for download from http://trac.osgeo.org/proj/ .
GEOS geometry library, version 3.3 or greater, but GEOS 3.5+ is recommended to take full advantage of all the new functions and features. Without GEOS 3.5, you will be missing some major enhancements such as ST_ClipByBox2D and ST_Subdivide. GEOS is available for download from http://trac.osgeo.org/geos/ and 3.4+ is backward-compatible with older versions so fairly safe to upgrade.
LibXML2, version 2.5.x or higher. LibXML2 is currently used in some imports functions (ST_GeomFromGML and ST_GeomFromKML). LibXML2 is available for download from http://xmlsoft.org/downloads.html.
JSON-C, version 0.9 or higher. JSON-C is currently used to import GeoJSON via the function ST_GeomFromGeoJson. JSON-C is available for download from https://github.com/json-c/json-c/releases/.
GDAL, version 1.8 or higher (1.9 or higher is strongly recommended since some things will not work well or behavior differently with lower versions). This is required for raster support and to be able to install with
CREATE EXTENSION postgis so highly recommended for those running 9.1+.
GDAL (pseudo optional) only if you don't want raster and don't care about installing with
CREATE EXTENSION postgis can you leave it out.
Keep in mind other extensions may have a requires postgis extension which will prevent you from installing them unless you install postgis as an extension. So it is highly recommended you compile with GDAL support.
Also make sure to enable the drivers you want to use as described in Section 2.1, “Short Version”.
GTK (requires GTK+2.0, 2.8+) to compile the shp2pgsql-gui shape file loader. http://www.gtk.org/ .
SFCGAL, version 1.1 (or higher) could be used to provide additional 2D and 3D advanced analysis functions to PostGIS cf Section 8.10, “SFCGAL Functions”. And also allow to use SFCGAL rather than GEOS for some 2D functions provided by both backends (like ST_Intersection or ST_Area, for instance). A PostgreSQL configuration variable
postgis.backend allow end user to control which backend he want to use if SFCGAL is installed (GEOS by default). Nota: SFCGAL 1.2 require at least CGAL 4.3 and Boost 1.54 (cf: http://oslandia.github.io/SFCGAL/installation.html)
In order to build the Chapter 12, Address Standardizer you will also need PCRE http://www.pcre.org (which generally is already installed on nix systems).
Regex::Assemble perl CPAN package is only needed if you want to rebuild the data encoded in
Chapter 12, Address Standardizer will automatically be built if it detects a PCRE library, or you pass in a valid
--with-pcre-dir=/path/to/pcre during configure.
CUnit). This is needed for regression testing. http://cunit.sourceforge.net/
xsltproc) is required for building the
documentation. Docbook is available from
dblatex) is required for building the
documentation in PDF format. DBLatex is available from
convert) is required to generate the
images used in the documentation. ImageMagick is available from
Retrieve the PostGIS source archive from the downloads website http://postgis.net/stuff/postgis-2.3.10dev.tar.gz
wget http://postgis.net/stuff/postgis-2.3.10dev.tar.gz tar -xvzf postgis-2.3.10dev.tar.gz
This will create a directory called
postgis-2.3.10dev in the current working
svn checkout http://svn.osgeo.org/postgis/trunk/ postgis-2.3.10dev
Change into the newly created
postgis-2.3.10dev directory to continue
Many OS systems now include pre-built packages for PostgreSQL/PostGIS. In many cases compilation is only necessary if you want the most bleeding edge versions or you are a package maintainer.
This section includes general compilation instructions, if you are compiling for Windows etc or another OS, you may find additional more detailed help at PostGIS User contributed compile guides and PostGIS Dev Wiki.
Pre-Built Packages for various OS are listed in PostGIS Pre-built Packages
If you are a windows user, you can get stable builds via Stackbuilder or PostGIS Windows download site We also have very bleeding-edge windows experimental builds that are built usually once or twice a week or whenever anything exciting happens. You can use these to experiment with the in progress releases of PostGIS
The PostGIS module is an extension to the PostgreSQL backend server. As such, PostGIS 2.3.10dev requires full PostgreSQL server headers access in order to compile. It can be built against PostgreSQL versions 9.2 or higher. Earlier versions of PostgreSQL are not supported.
Refer to the PostgreSQL installation guides if you haven't already installed PostgreSQL. http://www.postgresql.org .
For GEOS functionality, when you install PostgresSQL you may need to explicitly link PostgreSQL against the standard C++ library:
LDFLAGS=-lstdc++ ./configure [YOUR OPTIONS HERE]
This is a workaround for bogus C++ exceptions interaction with older development tools. If you experience weird problems (backend unexpectedly closed or similar things) try this trick. This will require recompiling your PostgreSQL from scratch, of course.
The following steps outline the configuration and compilation of the PostGIS source. They are written for Linux users and will not work on Windows or Mac.
As with most linux installations, the first step is to generate the Makefile that will be used to build the source code. This is done by running the shell script
With no additional parameters, this command will attempt to automatically locate the required components and libraries needed to build the PostGIS source code on your system. Although this is the most common usage of ./configure, the script accepts several parameters for those who have the required libraries and programs in non-standard locations.
The following list shows only the most commonly used parameters. For a complete list, use the --help or --help=short parameters.
This is the location the PostGIS libraries and SQL scripts will be installed to. By default, this location is the same as the detected PostgreSQL installation.
This parameter is currently broken, as the package will only install into the PostgreSQL installation directory. Visit http://trac.osgeo.org/postgis/ticket/635 to track this bug.
PostgreSQL provides a utility called pg_config to enable extensions like PostGIS to locate the PostgreSQL installation directory. Use this parameter (--with-pgconfig=/path/to/pg_config) to manually specify a particular PostgreSQL installation that PostGIS will build against.
GDAL, a required library, provides functionality needed for raster support gdal-config to enable software installations to locate the GDAL installation directory. Use this parameter (--with-gdalconfig=/path/to/gdal-config) to manually specify a particular GDAL installation that PostGIS will build against.
GEOS, a required geometry library, provides a utility called geos-config to enable software installations to locate the GEOS installation directory. Use this parameter (--with-geosconfig=/path/to/geos-config) to manually specify a particular GEOS installation that PostGIS will build against.
LibXML is the library required for doing GeomFromKML/GML processes.
It normally is found if you have libxml installed, but if not or you want
a specific version used, you'll need to point PostGIS at a specific
xml2-config confi file to enable software installations to
locate the LibXML installation directory. Use this parameter
manually specify a particular LibXML installation that PostGIS will
Proj4 is a reprojection library required by PostGIS. Use this parameter (--with-projdir=/path/to/projdir) to manually specify a particular Proj4 installation directory that PostGIS will build against.
Directory where iconv is installed.
JSON-C is an MIT-licensed JSON library required by PostGIS ST_GeomFromJSON support. Use this parameter (--with-jsondir=/path/to/jsondir) to manually specify a particular JSON-C installation directory that PostGIS will build against.
PCRE is an BSD-licensed Perl Compatible Regular Expression library required by address_standardizer extension. Use this parameter (--with-pcredir=/path/to/pcredir) to manually specify a particular PCRE installation directory that PostGIS will build against.
Compile the data import GUI (requires GTK+2.0). This will create shp2pgsql-gui graphical interface to shp2pgsql.
Compile with raster support. This will build rtpostgis-2.3.10dev library and rtpostgis.sql file. This may not be required in final release as plan is to build in raster support by default.
Compile with topology support. This will build the topology.sql file. There is no corresponding library as all logic needed for topology is in postgis-2.3.10dev library.
By default PostGIS will try to detect gettext support and compile with it, however if you run into incompatibility issues that cause breakage of loader, you can disable it entirely with this command. Refer to ticket http://trac.osgeo.org/postgis/ticket/748 for an example issue solved by configuring with this. NOTE: that you aren't missing much by turning this off. This is used for international help/label support for the GUI loader which is not yet documented and still experimental.
By default PostGIS will not install with sfcgal support without this switch.
PATH is an optional argument that allows to specify an alternate PATH to sfcgal-config.
If you obtained PostGIS from the SVN repository , the first step is really to run the script
This script will generate the configure script that in turn is used to customize the installation of PostGIS.
If you instead obtained PostGIS as a tarball, running ./autogen.sh is not necessary as configure has already been generated.
Once the Makefile has been generated, building PostGIS is as simple as running
The last line of the output should be "
PostGIS was built
successfully. Ready to install."
As of PostGIS v1.4.0, all the functions have comments generated from the documentation. If you wish to install these comments into your spatial databases later, run the command which requires docbook. The postgis_comments.sql and other package comments files raster_comments.sql, topology_comments.sql are also packaged in the tar.gz distribution in the doc folder so no need to make comments if installing from the tar ball.
Introduced in PostGIS 2.0. This generates html cheat sheets suitable for quick reference or for student handouts.
This requires xsltproc to build and will generate 4 files in doc folder
You can download some pre-built ones available in html and pdf from PostGIS / PostgreSQL Study Guides
The PostGIS extensions are built and installed automatically if you are using PostgreSQL 9.1+.
If you are building from source repository, you need to build the function descriptions first. These get built if you have docbook installed. You can also manually build with the statement:
Building the comments is not necessary if you are building from a release tar ball since these are packaged pre-built with the tar ball already.
If you are building against PostgreSQL 9.1, the extensions should automatically build as part of the make install process. You can if needed build from the extensions folders or copy files if you need them on a different server.
cd extensions cd postgis make clean make make install cd .. cd postgis_topology make clean make make install cd .. cd postgis_sfcgal make clean make make install cd .. cd address_standardizer make clean make make install make installcheck cd .. cd postgis_tiger_geocoder make clean make make install make installcheck
The extension files will always be the same for the same version of PostGIS regardless of OS, so it is fine to copy over the extension files from one OS to another as long as you have the PostGIS binaries already installed on your servers.
If you want to install the extensions manually on a separate server different from your development,
You need to copy the following files from the extensions folder into the
PostgreSQL / share / extension folder
of your PostgreSQL install as well as the needed binaries for regular PostGIS if you don't have them already on the server.
These are the control files that denote information such as the version of the extension to install if not specified.
All the files in the /sql folder of each extension. Note that these need to be copied to the root of the PostgreSQL share/extension folder
Once you do that, you should see
postgis_topology as available extensions in PgAdmin -> extensions.
If you are using psql, you can verify that the extensions are installed by running this query:
SELECT name, default_version,installed_version FROM pg_available_extensions WHERE name LIKE 'postgis%' or name LIKE 'address%'; name | default_version | installed_version ------------------------------+-----------------+------------------- address_standardizer | 2.3.10dev | 2.3.10dev address_standardizer_data_us | 2.3.10dev | 2.3.10dev postgis | 2.3.10dev | 2.3.10dev postgis_sfcgal | 2.3.10dev | postgis_tiger_geocoder | 2.3.10dev | 2.3.10dev postgis_topology | 2.3.10dev | (6 rows)
If you have the extension installed in the database you are querying, you'll see mention in the
If you get no records back, it means you don't have postgis extensions installed on the server at all. PgAdmin III 1.14+ will also provide this information
extensions section of the database browser tree and will even allow upgrade or uninstall by right-clicking.
If you have the extensions available, you can install postgis extension in your database of choice by either using pgAdmin extension interface or running these sql commands:
CREATE EXTENSION postgis; CREATE EXTENSION postgis_sfcgal; CREATE EXTENSION fuzzystrmatch; --needed for postgis_tiger_geocoder --optional used by postgis_tiger_geocoder, or can be used standalone CREATE EXTENSION address_standardizer; CREATE EXTENSION address_standardizer_data_us; CREATE EXTENSION postgis_tiger_geocoder; CREATE EXTENSION postgis_topology;
In psql you can use to see what versions you have installed and also what schema they are installed.
\connect mygisdb \x \dx postgis*
List of installed extensions -[ RECORD 1 ]------------------------------------------------- - Name | postgis Version | 2.3.10dev Schema | public Description | PostGIS geometry, geography, and raster spat.. -[ RECORD 2 ]------------------------------------------------- - Name | postgis_tiger_geocoder Version | 2.3.10dev Schema | tiger Description | PostGIS tiger geocoder and reverse geocoder -[ RECORD 3 ]------------------------------------------------- - Name | postgis_topology Version | 2.3.10dev Schema | topology Description | PostGIS topology spatial types and functions
If you installed 2.3.10dev, without using our wonderful extension system, you can change it to be extension based by first upgrading to the latest micro version running the upgrade scripts:
If you installed postgis without raster support, you'll need to install raster support first (using the full
Then you can run the below commands to package the functions in their respective extension.
CREATE EXTENSION postgis FROM unpackaged; CREATE EXTENSION postgis_topology FROM unpackaged; CREATE EXTENSION postgis_tiger_geocoder FROM unpackaged;
If you wish to test the PostGIS build, run
The above command will run through various checks and regression tests using the generated library against an actual PostgreSQL database.
If you configured PostGIS using non-standard PostgreSQL, GEOS, or Proj4 locations, you may need to add their library locations to the LD_LIBRARY_PATH environment variable.
Currently, the make check relies on the
If successful, the output of the test should be similar to the following:
CUnit - A unit testing framework for C - Version 2.1-2 http://cunit.sourceforge.net/ Suite: computational_geometry Test: test_lw_segment_side ...passed Test: test_lw_segment_intersects ...passed Test: test_lwline_crossing_short_lines ...passed Test: test_lwline_crossing_long_lines ...passed Test: test_lwline_crossing_bugs ...passed Test: test_lwpoint_set_ordinate ...passed Test: test_lwpoint_get_ordinate ...passed Test: test_point_interpolate ...passed Test: test_lwline_clip ...passed Test: test_lwline_clip_big ...passed Test: test_lwmline_clip ...passed Test: test_geohash_point ...passed Test: test_geohash_precision ...passed Test: test_geohash ...passed Test: test_geohash_point_as_int ...passed Test: test_isclosed ...passed Test: test_lwgeom_simplify ...passed Suite: buildarea Test: buildarea1 ...passed Test: buildarea2 ...passed Test: buildarea3 ...passed Test: buildarea4 ...passed Test: buildarea4b ...passed Test: buildarea5 ...passed Test: buildarea6 ...passed Test: buildarea7 ...passed Suite: geometry_clean Test: test_lwgeom_make_valid ...passed Suite: clip_by_rectangle Test: test_lwgeom_clip_by_rect ...passed Suite: force_sfs Test: test_sfs_11 ...passed Test: test_sfs_12 ...passed Test: test_sqlmm ...passed Suite: geodetic Test: test_sphere_direction ...passed Test: test_sphere_project ...passed Test: test_lwgeom_area_sphere ...passed Test: test_signum ...passed Test: test_gbox_from_spherical_coordinates ...passed Test: test_gserialized_get_gbox_geocentric ...passed Test: test_clairaut ...passed Test: test_edge_intersection ...passed Test: test_edge_intersects ...passed Test: test_edge_distance_to_point ...passed Test: test_edge_distance_to_edge ...passed Test: test_lwgeom_distance_sphere ...passed Test: test_lwgeom_check_geodetic ...passed Test: test_gserialized_from_lwgeom ...passed Test: test_spheroid_distance ...passed Test: test_spheroid_area ...passed Test: test_lwpoly_covers_point2d ...passed Test: test_gbox_utils ...passed Test: test_vector_angle ...passed Test: test_vector_rotate ...passed Test: test_lwgeom_segmentize_sphere ...passed Test: test_ptarray_contains_point_sphere ...passed Test: test_ptarray_contains_point_sphere_iowa ...passed Suite: GEOS Test: test_geos_noop ...passed Test: test_geos_subdivide ...passed Test: test_geos_linemerge ...passed Suite: Clustering Test: basic_test ...passed Test: nonsequential_test ...passed Test: basic_distance_test ...passed Test: single_input_test ...passed Test: empty_inputs_test ...passed Suite: Clustering Union-Find Test: test_unionfind_create ...passed Test: test_unionfind_union ...passed Test: test_unionfind_ordered_by_cluster ...passed Suite: homogenize Test: test_coll_point ...passed Test: test_coll_line ...passed Test: test_coll_poly ...passed Test: test_coll_coll ...passed Test: test_geom ...passed Test: test_coll_curve ...passed Suite: encoded_polyline_input Test: in_encoded_polyline_test_geoms ...passed Test: in_encoded_polyline_test_precision ...passed Suite: geojson_input Test: in_geojson_test_srid ...passed Test: in_geojson_test_bbox ...passed Test: in_geojson_test_geoms ...passed Suite: twkb_input Test: test_twkb_in_point ...passed Test: test_twkb_in_linestring ...passed Test: test_twkb_in_polygon ...passed Test: test_twkb_in_multipoint ...passed Test: test_twkb_in_multilinestring ...passed Test: test_twkb_in_multipolygon ...passed Test: test_twkb_in_collection ...passed Test: test_twkb_in_precision ...passed Suite: serialization/deserialization Test: test_typmod_macros ...passed Test: test_flags_macros ...passed Test: test_serialized_srid ...passed Test: test_gserialized_from_lwgeom_size ...passed Test: test_gbox_serialized_size ...passed Test: test_lwgeom_from_gserialized ...passed Test: test_lwgeom_count_vertices ...passed Test: test_on_gser_lwgeom_count_vertices ...passed Test: test_geometry_type_from_string ...passed Test: test_lwcollection_extract ...passed Test: test_lwgeom_free ...passed Test: test_lwgeom_flip_coordinates ...passed Test: test_f2d ...passed Test: test_lwgeom_clone ...passed Test: test_lwgeom_force_clockwise ...passed Test: test_lwgeom_calculate_gbox ...passed Test: test_lwgeom_is_empty ...passed Test: test_lwgeom_same ...passed Test: test_lwline_from_lwmpoint ...passed Test: test_lwgeom_as_curve ...passed Test: test_lwgeom_scale ...passed Test: test_gserialized_is_empty ...passed Test: test_gbox_same_2d ...passed Suite: measures Test: test_mindistance2d_tolerance ...passed Test: test_rect_tree_contains_point ...passed Test: test_rect_tree_intersects_tree ...passed Test: test_lwgeom_segmentize2d ...passed Test: test_lwgeom_locate_along ...passed Test: test_lw_dist2d_pt_arc ...passed Test: test_lw_dist2d_seg_arc ...passed Test: test_lw_dist2d_arc_arc ...passed Test: test_lw_arc_length ...passed Test: test_lw_dist2d_pt_ptarrayarc ...passed Test: test_lw_dist2d_ptarray_ptarrayarc ...passed Test: test_lwgeom_tcpa ...passed Test: test_lwgeom_is_trajectory ...passed Suite: effectivearea Test: do_test_lwgeom_effectivearea_lines ...passed Test: do_test_lwgeom_effectivearea_polys ...passed Suite: miscellaneous Test: test_misc_force_2d ...passed Test: test_misc_simplify ...passed Test: test_misc_count_vertices ...passed Test: test_misc_area ...passed Test: test_misc_wkb ...passed Test: test_grid ...passed Suite: noding Test: test_lwgeom_node ...passed Suite: encoded_polyline_output Test: out_encoded_polyline_test_geoms ...passed Test: out_encoded_polyline_test_srid ...passed Test: out_encoded_polyline_test_precision ...passed Suite: geojson_output Test: out_geojson_test_precision ...passed Test: out_geojson_test_dims ...passed Test: out_geojson_test_srid ...passed Test: out_geojson_test_bbox ...passed Test: out_geojson_test_geoms ...passed Suite: gml_output Test: out_gml_test_precision ...passed Test: out_gml_test_srid ...passed Test: out_gml_test_dims ...passed Test: out_gml_test_geodetic ...passed Test: out_gml_test_geoms ...passed Test: out_gml_test_geoms_prefix ...passed Test: out_gml_test_geoms_nodims ...passed Test: out_gml2_extent ...passed Test: out_gml3_extent ...passed Suite: kml_output Test: out_kml_test_precision ...passed Test: out_kml_test_dims ...passed Test: out_kml_test_geoms ...passed Test: out_kml_test_prefix ...passed Suite: svg_output Test: out_svg_test_precision ...passed Test: out_svg_test_dims ...passed Test: out_svg_test_relative ...passed Test: out_svg_test_geoms ...passed Test: out_svg_test_srid ...passed Suite: x3d_output Test: out_x3d3_test_precision ...passed Test: out_x3d3_test_geoms ...passed Test: out_x3d3_test_option ...passed Suite: ptarray Test: test_ptarray_append_point ...passed Test: test_ptarray_append_ptarray ...passed Test: test_ptarray_locate_point ...passed Test: test_ptarray_isccw ...passed Test: test_ptarray_signed_area ...passed Test: test_ptarray_unstroke ...passed Test: test_ptarray_insert_point ...passed Test: test_ptarray_contains_point ...passed Test: test_ptarrayarc_contains_point ...passed Test: test_ptarray_scale ...passed Suite: printing Test: test_lwprint_default_format ...passed Test: test_lwprint_format_orders ...passed Test: test_lwprint_optional_format ...passed Test: test_lwprint_oddball_formats ...passed Test: test_lwprint_bad_formats ...passed Suite: SFCGAL Test: test_sfcgal_noop ...passed Suite: split Test: test_lwline_split_by_point_to ...passed Test: test_lwgeom_split ...passed Suite: stringbuffer Test: test_stringbuffer_append ...passed Test: test_stringbuffer_aprintf ...passed Suite: surface Test: triangle_parse ...passed Test: tin_parse ...passed Test: polyhedralsurface_parse ...passed Test: surface_dimension ...passed Suite: Internal Spatial Trees Test: test_tree_circ_create ...passed Test: test_tree_circ_pip ...passed Test: test_tree_circ_pip2 ...passed Test: test_tree_circ_distance ...passed Test: test_tree_circ_distance_threshold ...passed Suite: triangulate Test: test_lwgeom_delaunay_triangulation ...passed Suite: twkb_output Test: test_twkb_out_point ...passed Test: test_twkb_out_linestring ...passed Test: test_twkb_out_polygon ...passed Test: test_twkb_out_multipoint ...passed Test: test_twkb_out_multilinestring ...passed Test: test_twkb_out_multipolygon ...passed Test: test_twkb_out_collection ...passed Test: test_twkb_out_idlist ...passed Suite: varint Test: test_zigzag ...passed Test: test_varint ...passed Test: test_varint_roundtrip ...passed Suite: wkb_input Test: test_wkb_in_point ...passed Test: test_wkb_in_linestring ...passed Test: test_wkb_in_polygon ...passed Test: test_wkb_in_multipoint ...passed Test: test_wkb_in_multilinestring ...passed Test: test_wkb_in_multipolygon ...passed Test: test_wkb_in_collection ...passed Test: test_wkb_in_circularstring ...passed Test: test_wkb_in_compoundcurve ...passed Test: test_wkb_in_curvpolygon ...passed Test: test_wkb_in_multicurve ...passed Test: test_wkb_in_multisurface ...passed Test: test_wkb_in_malformed ...passed Suite: wkb_output Test: test_wkb_out_point ...passed Test: test_wkb_out_linestring ...passed Test: test_wkb_out_polygon ...passed Test: test_wkb_out_multipoint ...passed Test: test_wkb_out_multilinestring ...passed Test: test_wkb_out_multipolygon ...passed Test: test_wkb_out_collection ...passed Test: test_wkb_out_circularstring ...passed Test: test_wkb_out_compoundcurve ...passed Test: test_wkb_out_curvpolygon ...passed Test: test_wkb_out_multicurve ...passed Test: test_wkb_out_multisurface ...passed Test: test_wkb_out_polyhedralsurface ...passed Suite: wkt_input Test: test_wkt_in_point ...passed Test: test_wkt_in_linestring ...passed Test: test_wkt_in_polygon ...passed Test: test_wkt_in_multipoint ...passed Test: test_wkt_in_multilinestring ...passed Test: test_wkt_in_multipolygon ...passed Test: test_wkt_in_collection ...passed Test: test_wkt_in_circularstring ...passed Test: test_wkt_in_compoundcurve ...passed Test: test_wkt_in_curvpolygon ...passed Test: test_wkt_in_multicurve ...passed Test: test_wkt_in_multisurface ...passed Test: test_wkt_in_tin ...passed Test: test_wkt_in_polyhedralsurface ...passed Test: test_wkt_in_errlocation ...passed Suite: wkt_output Test: test_wkt_out_point ...passed Test: test_wkt_out_linestring ...passed Test: test_wkt_out_polygon ...passed Test: test_wkt_out_multipoint ...passed Test: test_wkt_out_multilinestring ...passed Test: test_wkt_out_multipolygon ...passed Test: test_wkt_out_collection ...passed Test: test_wkt_out_circularstring ...passed Test: test_wkt_out_compoundcurve ...passed Test: test_wkt_out_curvpolygon ...passed Test: test_wkt_out_multicurve ...passed Test: test_wkt_out_multisurface ...passed Run Summary: Type Total Ran Passed Failed Inactive suites 38 38 n/a 0 0 tests 251 251 251 0 0 asserts 2468 2468 2468 0 n/a Elapsed time = 0.298 seconds Creating database 'postgis_reg' Loading PostGIS into 'postgis_reg' /projects/postgis/branches/2.2/regress/00-regress-install/share/contrib/postgis/postgis.sql /projects/postgis/branches/2.2/regress/00-regress-install/share/contrib/postgis/postgis_comments.sql Loading SFCGAL into 'postgis_reg' /projects/postgis/branches/2.2/regress/00-regress-install/share/contrib/postgis/sfcgal.sql /projects/postgis/branches/2.2/regress/00-regress-install/share/contrib/postgis/sfcgal_comments.sql PostgreSQL 9.4.4, compiled by Visual C++ build 1800, 32-bit Postgis 2.2.0dev - r13980 - 2015-08-23 06:13:07 scripts 2.2.0dev r13980 GEOS: 3.5.0-CAPI-1.9.0 r4088 PROJ: Rel. 4.9.1, 04 March 2015 SFCGAL: 1.1.0 Running tests loader/Point .............. ok loader/PointM .............. ok loader/PointZ .............. ok loader/MultiPoint .............. ok loader/MultiPointM .............. ok loader/MultiPointZ .............. ok loader/Arc .............. ok loader/ArcM .............. ok loader/ArcZ .............. ok loader/Polygon .............. ok loader/PolygonM .............. ok loader/PolygonZ .............. ok loader/TSTPolygon ......... ok loader/TSIPolygon ......... ok loader/TSTIPolygon ......... ok loader/PointWithSchema ..... ok loader/NoTransPoint ......... ok loader/NotReallyMultiPoint ......... ok loader/MultiToSinglePoint ......... ok loader/ReprojectPts ........ ok loader/ReprojectPtsGeog ........ ok loader/Latin1 .... ok loader/Latin1-implicit .... ok loader/mfile .... ok dumper/literalsrid ....... ok dumper/realtable ....... ok affine .. ok bestsrid .. ok binary .. ok boundary .. ok cluster .. ok concave_hull .. ok ctors .. ok dump .. ok dumppoints .. ok empty .. ok forcecurve .. ok geography .. ok in_geohash .. ok in_gml .. ok in_kml .. ok in_encodedpolyline .. ok iscollection .. ok legacy .. ok long_xact .. ok lwgeom_regress .. ok measures .. ok operators .. ok out_geometry .. ok out_geography .. ok polygonize .. ok polyhedralsurface .. ok postgis_type_name .. ok regress .. ok regress_bdpoly .. ok regress_index .. ok regress_index_nulls .. ok regress_management .. ok regress_selectivity .. ok regress_lrs .. ok regress_ogc .. ok regress_ogc_cover .. ok regress_ogc_prep .. ok regress_proj .. ok relate .. ok remove_repeated_points .. ok removepoint .. ok setpoint .. ok simplify .. ok simplifyvw .. ok size .. ok snaptogrid .. ok split .. ok sql-mm-serialize .. ok sql-mm-circularstring .. ok sql-mm-compoundcurve .. ok sql-mm-curvepoly .. ok sql-mm-general .. ok sql-mm-multicurve .. ok sql-mm-multisurface .. ok swapordinates .. ok summary .. ok temporal .. ok tickets .. ok twkb .. ok typmod .. ok wkb .. ok wkt .. ok wmsservers .. ok knn .. ok hausdorff .. ok regress_buffer_params .. ok offsetcurve .. ok relatematch .. ok isvaliddetail .. ok sharedpaths .. ok snap .. ok node .. ok unaryunion .. ok clean .. ok relate_bnr .. ok delaunaytriangles .. ok clipbybox2d .. ok subdivide .. ok in_geojson .. ok regress_sfcgal .. ok sfcgal/empty .. ok sfcgal/geography .. ok sfcgal/legacy .. ok sfcgal/measures .. ok sfcgal/regress_ogc_prep .. ok sfcgal/regress_ogc .. ok sfcgal/regress .. ok sfcgal/tickets .. ok sfcgal/concave_hull .. ok sfcgal/wmsservers .. ok sfcgal/approximatemedialaxis .. ok uninstall . /projects/postgis/branches/2.2/regress/00-regress-install/share/contrib/postgis/uninstall_sfcgal.sql /projects/postgis/branches/2.2/regress/00-regress-install/share/contrib/postgis/uninstall_postgis.sql . ok (4336) Run tests: 118 Failed: 0 -- if you built --with-gui, you should see this too CUnit - A unit testing framework for C - Version 2.1-2 http://cunit.sourceforge.net/ Suite: Shapefile Loader File shp2pgsql Test Test: test_ShpLoaderCreate() ...passed Test: test_ShpLoaderDestroy() ...passed Suite: Shapefile Loader File pgsql2shp Test Test: test_ShpDumperCreate() ...passed Test: test_ShpDumperDestroy() ...passed Run Summary: Type Total Ran Passed Failed Inactive suites 2 2 n/a 0 0 tests 4 4 4 0 0 asserts 4 4 4 0 n/a
address_standardizer extensions, currenlty only support the standard PostgreSQL installcheck. To test these use the below. Note: the make install is not necessary if you already did make install at root of PostGIS code folder.
cd extensions/address_standardizer make install make installcheck
Output should look like:
============== dropping database "contrib_regression" ============== DROP DATABASE ============== creating database "contrib_regression" ============== CREATE DATABASE ALTER DATABASE ============== running regression test queries ============== test test-init-extensions ... ok test test-parseaddress ... ok test test-standardize_address_1 ... ok test test-standardize_address_2 ... ok ===================== All 4 tests passed. =====================
For tiger geocoder, make sure you have postgis and fuzzystrmatch extensions available in your PostgreSQL instance. The address_standardizer tests will also kick in if you built postgis with address_standardizer support:
cd extensions/postgis_tiger_geocoder make install make installcheck
output should look like:
============== dropping database "contrib_regression" ============== DROP DATABASE ============== creating database "contrib_regression" ============== CREATE DATABASE ALTER DATABASE ============== installing fuzzystrmatch ============== CREATE EXTENSION ============== installing postgis ============== CREATE EXTENSION ============== installing postgis_tiger_geocoder ============== CREATE EXTENSION ============== installing address_standardizer ============== CREATE EXTENSION ============== running regression test queries ============== test test-normalize_address ... ok test test-pagc_normalize_address ... ok ===================== All 2 tests passed. =====================
To install PostGIS, type
This will copy the PostGIS installation files into their appropriate subdirectory specified by the --prefix configuration parameter. In particular:
The loader and dumper binaries are installed in
The SQL files, such as
The PostGIS libraries are installed in
If you previously ran the make comments command to
raster_comments.sql file, install the
sql file by running
If you are using PostgreSQL 9.1+ and have compiled and installed the extensions/ postgis modules, you can create a spatial database the new way.
The core postgis extension installs PostGIS geometry, geography, raster, spatial_ref_sys and all the functions and comments with a simple:
CREATE EXTENSION postgis;
psql -d [yourdatabase] -c "CREATE EXTENSION postgis;"
Topology is packaged as a separate extension and installable with command:
psql -d [yourdatabase] -c "CREATE EXTENSION postgis_topology;"
If you plan to restore an old backup from prior versions in this new db, run:
psql -d [yourdatabase] -f legacy.sql
You can later run
uninstall_legacy.sql to get rid of the deprecated functions after you are done with restoring and cleanup.
This is generally only needed if you built-PostGIS without raster support. Since raster functions are part of the postgis extension, extension support is not enabled if PostGIS is built without raster.
The first step in creating a PostGIS database is to create a simple PostgreSQL database.
Many of the PostGIS functions are written in the PL/pgSQL procedural language. As such, the next step to create a PostGIS database is to enable the PL/pgSQL language in your new database. This is accomplish by the command below command. For PostgreSQL 8.4+, this is generally already installed
createlang plpgsql [yourdatabase]
Now load the PostGIS object and function definitions into your database by
postgis.sql definitions file (located in
[prefix]/share/contrib as specified during the
psql -d [yourdatabase] -f postgis.sql
For a complete set of EPSG coordinate system definition identifiers, you
can also load the
file and populate the
spatial_ref_sys table. This will
permit you to perform ST_Transform() operations on geometries.
psql -d [yourdatabase] -f spatial_ref_sys.sql
If you wish to add comments to the PostGIS functions, the final step is to
postgis_comments.sql into your spatial
database. The comments can be viewed by simply typing \dd
[function_name] from a psql terminal window.
psql -d [yourdatabase] -f postgis_comments.sql
Install raster support
psql -d [yourdatabase] -f rtpostgis.sql
Install raster support comments. This will provide quick help info for each raster function using psql or PgAdmin or any other PostgreSQL tool that can show function comments
psql -d [yourdatabase] -f raster_comments.sql
Install topology support
psql -d [yourdatabase] -f topology/topology.sql
Install topology support comments. This will provide quick help info for each topology function / type using psql or PgAdmin or any other PostgreSQL tool that can show function comments
psql -d [yourdatabase] -f topology/topology_comments.sql
If you plan to restore an old backup from prior versions in this new db, run:
psql -d [yourdatabase] -f legacy.sql
There is an alternative
You can later run
uninstall_legacy.sql to get rid of the deprecated functions after you are done with restoring and cleanup.
address_standardizer extension used to be a separate package that required separate download. From PostGIS 2.2 on, it is now bundled in.
For more information about the address_standardize, what it does, and how to configure it for your needs, refer to Chapter 12, Address Standardizer.
This standardizer can be used in conjunction with the PostGIS packaged tiger geocoder extension as a replacement for the Normalize_Address discussed. To use as replacement refer to Section 2.8.3, “Using Address Standardizer Extension with Tiger geocoder”. You can also use it as a building block for your own geocoder or use it to standardize your addresses for easier compare of addresses.
The address standardizer relies on PCRE which is usually already installed on many Nix systems,
but you can download the latest at: http://www.pcre.org. If during Section 2.4.1, “Configuration”, PCRE is found, then the address standardizer extension will automatically be built. If you have a custom pcre install you want to use instead, pass to configure
/path/to/pcre is the root folder for your pcre include and lib directories.
For Windows users, the PostGIS 2.1+ bundle is packaged with the address_standardizer already so no need to compile and can move straight to
CREATE EXTENSION step.
Once you have installed, you can connect to your database and run the SQL:
CREATE EXTENSION address_standardizer;
The following test requires no rules, gaz, or lex tables
SELECT num, street, city, state, zip FROM parse_address('1 Devonshire Place, Boston, MA 02109');
Output should be
num | street | city | state | zip -----+------------------------+--------+-------+------- 1 | Devonshire Place PH301 | Boston | MA | 02109
Perl Regex:Assemble is no longer needed for compiling address_standardizer extension since the files it generates are part of the source tree. However if you need to edit the
usps-st-city-orig.txt usps-st-city-adds.tx, you need to rebuild
parseaddress-stcities.h which does require Regex:Assemble.
or if you are on Ubuntu / Debian you might need to do
sudo perl -MCPAN -e "install Regexp::Assemble"
Extras like Tiger geocoder may not be packaged in your PostGIS distribution. If you are missing the tiger geocoder extension or want a newer version than what your install comes with, then use
share/extension/postgis_tiger_geocoder.* files from the packages in Windows Unreleased Versions section for your version of PostgreSQL.
Although these packages are for windows, the postgis_tiger_geocoder extension files will work on any OS since the extension is an SQL/plpgsql only extension.
If you are using PostgreSQL 9.1+ and PostGIS 2.1+, you can take advantage of the new extension model for installing tiger geocoder. To do so:
First get binaries for PostGIS 2.1+ or compile and install as usual. This should install the necessary extension files as well for tiger geocoder.
Connect to your database via psql or pgAdmin or some other tool and run the following SQL commands. Note that if you are installing in a database that already has postgis, you don't need to do the first step. If you have
fuzzystrmatch extension already installed, you don't need to do the second step either.
CREATE EXTENSION postgis; CREATE EXTENSION fuzzystrmatch; --this one is optional if you want to use the rules based standardizer (pagc_normalize_address) CREATE EXTENSION address_standardizer; CREATE EXTENSION postgis_tiger_geocoder;
If you already have postgis_tiger_geocoder extension installed, and just want to update to the latest run:
ALTER EXTENSION postgis UPDATE; ALTER EXTENSION postgis_tiger_geocoder UPDATE;
If you made custom entries or changes to
tiger.loader_variables you may need to update these.
To confirm your install is working correctly, run this sql in your database:
SELECT na.address, na.streetname,na.streettypeabbrev, na.zip FROM normalize_address('1 Devonshire Place, Boston, MA 02109') AS na;
Which should output
address | streetname | streettypeabbrev | zip ---------+------------+------------------+------- 1 | Devonshire | Pl | 02109
Create a new record in
tiger.loader_platform table with the paths of your executables and server.
So for example to create a profile called debbie that follows
sh convention. You would do:
INSERT INTO tiger.loader_platform(os, declare_sect, pgbin, wget, unzip_command, psql, path_sep, loader, environ_set_command, county_process_command) SELECT 'debbie', declare_sect, pgbin, wget, unzip_command, psql, path_sep, loader, environ_set_command, county_process_command FROM tiger.loader_platform WHERE os = 'sh';
And then edit the paths in the declare_sect column to those that fit Debbie's pg, unzip,shp2pgsql, psql, etc path locations.
If you don't edit this
loader_platform table, it will just contain common case locations of items and you'll have to edit the generated script after the script is generated.
Create a folder called
gisdata on root of server or your local pc if you have a fast network connection to the server. This folder is
where the tiger files will be downloaded to and processed. If you are not happy with having the folder on the root of the server, or simply want to change to a different folder for staging, then edit the field
staging_fold in the
Create a folder called temp in the
gisdata folder or whereever you designated the
staging_fold to be. This will be
the folder where the loader extracts the downloaded tiger data.
Then run the Loader_Generate_Nation_Script SQL function make sure to use the name of your custom profile and copy the script to a .sh or .bat file. So for example to build the nation load:
psql -c "SELECT Loader_Generate_Nation_Script('debbie')" -d geocoder -tA > /gisdata/nation_script_load.sh
Run the generated nation load commandline scripts.
cd /gisdata sh nation_script_load.sh
After you are done running the nation script, you should have three tables in your
tiger_data schema and they should be filled with data. Confirm you do by doing the following queries from psql or pgAdmin
SELECT count(*) FROM tiger_data.county_all;
count ------- 3233 (1 row)
SELECT count(*) FROM tiger_data.state_all;
count ------- 56 (1 row)
By default the tables corresponding to
tabblock are not loaded. These tables are not used by the geocoder but are used by folks for population statistics.
If you wish to load them as part of your state loads, run the following statement to enable them.
UPDATE tiger.loader_lookuptables SET load = true WHERE load = false AND lookup_name IN('tract', 'bg', 'tabblock');
Alternatively you can load just these tables after loading state data using the Loader_Generate_Census_Script
For each state you want to load data for, generate a state script Loader_Generate_Script.
DO NOT Generate the state script until you have already loaded the nation data, because the state script utilizes county list loaded by nation script.
psql -c "SELECT Loader_Generate_Script(ARRAY['MA'], 'debbie')" -d geocoder -tA > /gisdata/ma_load.sh
Run the generated commandline scripts.
cd /gisdata sh ma_load.sh
After you are done loading all data or at a stopping point, it's a good idea to analyze all the tiger tables to update the stats (include inherited stats)
SELECT install_missing_indexes(); vacuum analyze verbose tiger.addr; vacuum analyze verbose tiger.edges; vacuum analyze verbose tiger.faces; vacuum analyze verbose tiger.featnames; vacuum analyze verbose tiger.place; vacuum analyze verbose tiger.cousub; vacuum analyze verbose tiger.county; vacuum analyze verbose tiger.state; vacuum analyze verbose tiger.zip_lookup_base; vacuum analyze verbose tiger.zip_state; vacuum analyze verbose tiger.zip_state_loc;
If you installed the tiger geocoder without using the extension model, you can convert to the extension model as follows:
Follow instructions in Section 2.8.5, “Upgrading your Tiger Geocoder Install” for the non-extension model upgrade.
Connect to your database with psql or pgAdmin and run the following command:
CREATE EXTENSION postgis_tiger_geocoder FROM unpackaged;
First install PostGIS using the prior instructions.
If you don't have an extras folder, download http://postgis.net/stuff/postgis-2.3.10dev.tar.gz
tar xvfz postgis-2.3.10dev.tar.gz
tiger_loader_2015.sql (or latest loader file you find, unless you want to load different year) to the paths of your executables server etc or alternatively you can update the
loader_platform table once installed. If you don't edit this file or the
loader_platform table, it will just contain common case locations of items and you'll have to edit the generated script after the fact when you run the Loader_Generate_Nation_Script and Loader_Generate_Script SQL functions.
If you are installing Tiger geocoder for the first time edit either the
create_geocode.bat script If you are on windows
create_geocode.sh if you are on Linux/Unix/Mac OSX with your PostgreSQL specific settings and run the corresponding script from the commandline.
Verify that you now have a
tiger schema in your database and that it is part of your database search_path. If it is not, add it with a command something along the line of:
ALTER DATABASE geocoder SET search_path=public, tiger;
The normalizing address functionality works more or less without any data except for tricky addresses. Run this test and verify things look like this:
SELECT pprint_addy(normalize_address('202 East Fremont Street, Las Vegas, Nevada 89101')) As pretty_address; pretty_address --------------------------------------- 202 E Fremont St, Las Vegas, NV 89101
One of the many complaints of folks is the address normalizer function Normalize_Address function that normalizes an address for prepping before geocoding. The normalizer is far from perfect and trying to patch its imperfectness takes a vast amount of resources. As such we have integrated with another project that has a much better address standardizer engine. To use this new address_standardizer, you compile the extension as described in Section 2.7, “Installing and Using the address standardizer” and install as an extension in your database.
Once you install this extension in the same database as you have installed
postgis_tiger_geocoder, then the Pagc_Normalize_Address can be used instead of Normalize_Address. This extension is tiger agnostic, so can be used with other data sources such as international addresses. The tiger geocoder extension does come packaged with its own custom versions of rules table (
tiger.pagc_rules) , gaz table (
tiger.pagc_gaz), and lex table (
tiger.pagc_lex). These you can add and update to improve your standardizing experience for your own needs.
The instructions for loading data are available in a more detailed form in the
extras/tiger_geocoder/tiger_2011/README. This just includes the general steps.
The load process downloads data from the census website for the respective nation files, states requested, extracts the files, and then loads each state into its own separate
set of state tables. Each state table inherits from the tables defined in
tiger schema so that its sufficient to just query those tables to access all the data and drop a set of state tables at any time using the Drop_State_Tables_Generate_Script if you need to reload a state or just don't need a state anymore.
In order to be able to load data you'll need the following tools:
A tool to unzip the zip files from census website.
For Unix like systems:
unzip executable which is usually already installed on most Unix like platforms.
For Windows, 7-zip which is a free compress/uncompress tool you can download from http://www.7-zip.org/
shp2pgsql commandline which is installed by default when you install PostGIS.
wget which is a web grabber tool usually installed on most Unix/Linux systems.
If you are on windows, you can get pre-compiled binaries from http://gnuwin32.sourceforge.net/packages/wget.htm
If you are upgrading from tiger_2010, you'll need to first generate and run Drop_Nation_Tables_Generate_Script. Before you load any state data, you need to load the nation wide data which you do with Loader_Generate_Nation_Script. Which will generate a loader script for you. Loader_Generate_Nation_Script is a one-time step that should be done for upgrading (from 2010) and for new installs.
To load state data refer to Loader_Generate_Script to generate a data load script for your platform for the states you desire. Note that you can install these piecemeal. You don't have to load all the states you want all at once. You can load them as you need them.
After the states you desire have been loaded, make sure to run the:
as described in Install_Missing_Indexes.
To test that things are working as they should, try to run a geocode on an address in your state using Geocode
If you have Tiger Geocoder packaged with 2.0+ already installed, you can upgrade the functions at any time even from an interim tar ball if there are fixes you badly need. This will only work for Tiger geocoder not installed with extensions.
If you don't have an extras folder, download http://postgis.net/stuff/postgis-2.3.10dev.tar.gz
tar xvfz postgis-2.3.10dev.tar.gz
upgrade_geocoder.bat script If you are on windows
upgrade_geocoder.sh if you are on Linux/Unix/Mac OSX. Edit the file to have your postgis database credentials.
If you are upgrading from 2010 or 2011, make sure to unremark out the loader script line so you get the latest script for loading 2012 data.
Then run th corresponding script from the commandline.
Next drop all nation tables and load up the new ones. Generate a drop script with this SQL statement as detailed in Drop_Nation_Tables_Generate_Script
Run the generated drop SQL statements.
Generate a nation load script with this SELECT statement as detailed in Loader_Generate_Nation_Script
Refer to Section 2.8.4, “Loading Tiger Data” for instructions on how to run the generate script. This only needs to be done once.
You can have a mix of 2010/2011 state tables and can upgrade each state separately. Before you upgrade a state to 2011, you first need to drop the 2010 tables for that state using Drop_State_Tables_Generate_Script.
Some packaged distributions of PostGIS (in particular the Win32 installers
for PostGIS >= 1.1.5) load the PostGIS functions into a template
template_postgis. If the
template_postgis database exists in your PostgreSQL
installation then it is possible for users and/or applications to create
spatially-enabled databases using a single command. Note that in both
cases, the database user must have been granted the privilege to create
From the shell:
# createdb -T template_postgis my_spatial_db
postgres=# CREATE DATABASE my_spatial_db TEMPLATE=template_postgis
Upgrading existing spatial databases can be tricky as it requires replacement or introduction of new PostGIS object definitions.
Unfortunately not all definitions can be easily replaced in a live database, so sometimes your best bet is a dump/reload process.
PostGIS provides a SOFT UPGRADE procedure for minor or bugfix releases, and a HARD UPGRADE procedure for major releases.
Before attempting to upgrade PostGIS, it is always worth to backup your data. If you use the -Fc flag to pg_dump you will always be able to restore the dump with a HARD UPGRADE.
If you installed your database using extensions, you'll need to upgrade using the extension model as well. If you installed using the old sql script way, then you should upgrade using the sql script way. Please refer to the appropriate.
This section applies only to those who installed PostGIS not using extensions. If you have extensions and try to upgrade with this approach you'll get messages like:
can't drop ... because postgis extension depends on it
After compiling and installing (make install) you should find a
rtpostgis_upgrade.sql in the installation folders. For example
/usr/share/postgresql/9.3/contrib/postgis_upgrade.sql. Install the
postgis_upgrade.sql. If you have raster functionality installed, you will also need to install the
/usr/share/postgresql/9.3/contrib/postgis_upgrade.sql. If you are moving from PostGIS 1.* to PostGIS 2.* or from PostGIS 2.* prior to r7409, you need to do a HARD UPGRADE.
psql -f postgis_upgrade.sql -d your_spatial_database
The same procedure applies to raster and
topology extensions, with upgrade files named
If you need them:
psql -f rtpostgis_upgrade.sql -d your_spatial_database
psql -f topology_upgrade.sql -d your_spatial_database
If you can't find the
The PostGIS_Full_Version function should inform you about the need to run this kind of upgrade using a "procs need upgrade" message.
If you originally installed PostGIS with extensions, then you need to upgrade using extensions as well. Doing a minor upgrade with extensions, is fairly painless.
ALTER EXTENSION postgis UPDATE TO "2.3.10dev"; ALTER EXTENSION postgis_topology UPDATE TO "2.3.10dev";
If you get an error notice something like:
No migration path defined for ... to 2.3.10dev
Then you'll need to backup your database, create a fresh one as described in Section 2.5, “Creating a spatial database using EXTENSIONS” and then restore your backup ontop of this new database.
If you get a notice message like:
Version "2.3.10dev" of extension "postgis" is already installed
Then everything is already up to date and you can safely ignore it. UNLESS you're attempting to upgrade from an SVN version to the next (which doesn't get a new version number); in that case you can append "next" to the version string, and next time you'll need to drop the "next" suffix again:
ALTER EXTENSION postgis UPDATE TO "2.3.10devnext"; ALTER EXTENSION postgis_topology UPDATE TO "2.3.10devnext";
If you installed PostGIS originally without a version specified, you can often skip the reinstallation of postgis extension before restoring since the backup just has
By HARD UPGRADE we mean full dump/reload of postgis-enabled databases. You need a HARD UPGRADE when PostGIS objects' internal storage changes or when SOFT UPGRADE is not possible. The Release Notes appendix reports for each version whether you need a dump/reload (HARD UPGRADE) to upgrade.
The dump/reload process is assisted by the postgis_restore.pl script which takes care of skipping from the dump all definitions which belong to PostGIS (including old ones), allowing you to restore your schemas and data into a database with PostGIS installed without getting duplicate symbol errors or bringing forward deprecated objects.
Supplementary instructions for windows users are available at Windows Hard upgrade.
The Procedure is as follows:
Create a "custom-format" dump of the database you want
to upgrade (let's call it
include binary blobs (-b) and verbose (-v) output.
The user can be the owner of the db, need not be postgres
pg_dump -h localhost -p 5432 -U postgres -Fc -b -v -f "/somepath/olddb.backup" olddb
Do a fresh install of PostGIS in a new database -- we'll
refer to this database as
Please refer to Section 2.6, “Create a spatially-enabled database without using extensions” and Section 2.5, “Creating a spatial database using EXTENSIONS” for
instructions on how to do this.
The spatial_ref_sys entries found in your dump will be restored, but they will not override existing ones in spatial_ref_sys. This is to ensure that fixes in the official set will be properly propagated to restored databases. If for any reason you really want your own overrides of standard entries just don't load the spatial_ref_sys.sql file when creating the new db.
If your database is really old or you know you've
been using long deprecated functions in your
views and functions, you might need to load
legacy.sql for all your functions
and views etc. to properly come back.
Only do this if _really_ needed. Consider upgrading your
views and functions before dumping instead, if possible.
The deprecated functions can be later removed by loading
Restore your backup into your fresh
newdb database using
Unexpected errors, if any, will be printed to the standard
error stream by psql. Keep a log of those.
perl utils/postgis_restore.pl "/somepath/olddb.backup" | psql -h localhost -p 5432 -U postgres newdb 2> errors.txt
Errors may arise in the following cases:
Some of your views or functions make use of deprecated PostGIS objects.
In order to fix this you may try loading
script prior to restore or you'll have to restore to a
version of PostGIS which still contains those objects
and try a migration again after porting your code.
legacy.sql way works for you, don't forget
to fix your code to stop using deprecated functions and drop them
Some custom records of spatial_ref_sys in dump file have an invalid SRID value. Valid SRID values are bigger than 0 and smaller than 999000. Values in the 999000.999999 range are reserved for internal use while values > 999999 can't be used at all. All your custom records with invalid SRIDs will be retained, with those > 999999 moved into the reserved range, but the spatial_ref_sys table would lose a check constraint guarding for that invariant to hold and possibly also its primary key ( when multiple invalid SRIDS get converted to the same reserved SRID value ).
In order to fix this you should copy your custom SRS to a SRID with a valid value (maybe in the 910000..910999 range), convert all your tables to the new srid (see UpdateGeometrySRID), delete the invalid entry from spatial_ref_sys and re-construct the check(s) with:
ALTER TABLE spatial_ref_sys ADD CONSTRAINT spatial_ref_sys_srid_check check (srid > 0 AND srid < 999000 );
ALTER TABLE spatial_ref_sys ADD PRIMARY KEY(srid));
There are several things to check when your installation or upgrade doesn't go as you expected.
Check that you have installed PostgreSQL 9.2 or newer, and that you are compiling against the same version of the PostgreSQL source as the version of PostgreSQL that is running. Mix-ups can occur when your (Linux) distribution has already installed PostgreSQL, or you have otherwise installed PostgreSQL before and forgotten about it. PostGIS will only work with PostgreSQL 9.2 or newer, and strange, unexpected error messages will result if you use an older version. To check the version of PostgreSQL which is running, connect to the database using psql and run this query:
If you are running an RPM based distribution, you can check for the existence of pre-installed packages using the rpm command as follows: rpm -qa | grep postgresql
If your upgrade fails, make sure you are restoring into a database that already has PostGIS installed.
Also check that configure has correctly detected the location and version of PostgreSQL, the Proj4 library and the GEOS library.
The output from configure is used to generate the
postgis_config.h file. Check that the
POSTGIS_GEOS_VERSION variables have been set
The data loader and dumper are built and installed automatically as part of the PostGIS build. To build and install them manually:
# cd postgis-2.3.10dev/loader # make # make install
The loader is called
shp2pgsql and converts ESRI
Shape files into SQL suitable for loading in PostGIS/PostgreSQL. The
dumper is called
pgsql2shp and converts PostGIS
tables (or queries) into ESRI Shape files. For more verbose documentation,
see the online help, and the manual pages.