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  • Committer: Package Import Robot
  • Author(s): Alastair McKinstry
  • Date: 2013-07-18 07:26:49 UTC
  • mfrom: (1.1.1)
  • Revision ID: package-import@ubuntu.com-20130718072649-s2yct1q8we4z1w37
Tags: 3.0.2-1
* New upstream release. 
* Move to DH 9.

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PKG-INFO
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Metadata-Version: 1.0
 
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Metadata-Version: 1.1
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Name: gsw
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Version: 3.0.1
 
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Version: 3.0.2
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Summary: Gibbs SeaWater Oceanographic Package of TEOS-10
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Home-page: http://pypi.python.org/pypi/seawater/
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Author: Filipe Fernandes
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OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
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THE SOFTWARE.
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Download-URL: https://pypi.python.org/pypi/gsw/
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Description: ==========
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        python gsw
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        ==========
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        This table shows some function names in the gibbs library and the corresponding function names in the csiro library.
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | **Variable**                          | **SeaWater (EOS 80)**         | **Gibbs SeaWater (GSW TEOS 10)**                      |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | Absolute Salinity                     |          NA                   | gsw.SA_from_SP(SP,p,long,lat)                         |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | Conservative Temperature              |          NA                   | gsw.CT_from_t(SA,t,p)                                 |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | density (i.e. in situ density)        |  sw.dens(SP,t,p)              | gsw.rho_CT(SA,CT,p), or gsw.rho(SA,t,p), or           |
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        |                                       |                               | gsw.rho_CT25(SA,CT,p)                                 |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | potential density                     |  sw.pden(SP,t,p,pr)           | gsw.rho_CT(SA,CT,pr), or                              |
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        |                                       |                               | gsw.rho_CT25(SA,CT,pr)                                |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | potential temperature                 |  sw.ptmp(SP,t,p,pr)           | gsw.pt_from_t(SA,t,p,pr)                              |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | $\sigma_0$, using                     |  sw.dens(SP, $\theta_o$, 0)   | gsw.sigma0_CT(SA,CT)                                  |
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        |  $\theta_o$ = sw.ptmp(SP,t,p,0)       |  -1000 kg m :sup:`-3`         |                                                       |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | $\sigma_2$, using                     |  sw.dens(SP,$\theta_2$, 2000) | gsw.sigma2_CT(SA,CT)                                  |
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        |  $\theta_2$ = sw.ptmp(SP,t,p,2000)    |  -1000 kg m :sup:`-3`         |                                                       |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | $\sigma_4$, using                     |  sw.dens(SP,$\theta_4$, 4000) | gsw.sigma2_CT(SA,CT)                                  |
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        |  $\theta_4$ = sw.ptmp(SP,t,p,2000)    |  -1000 kg m :sup:`-3`         |                                                       |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | specific volume anomaly               |  sw.svan(SP,t,p)              | gsw.specvol_anom_CT(SA,CT,p)  or                      |
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        |                                       |                               | gsw.specvol_anom_CT25(SA,CT,p)                        |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | dynamic height anomaly                | -sw.gpan(SP,t,p)              | gsw.geo_strf_dyn_height(SA,CT,p,delta_p,interp_style) |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | geostrophic velocity                  |  sw.gvel(ga,lat,long)         | gsw.geostrophic_velocity(geo_str,long,lat,p)          |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | N :sup:`2`                            |  sw.bfrq(SP,t,p,lat)          | gsw.Nsquared_CT25(SA,CT,p,lat)                        |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | pressure from height                  |  sw.pres(-z,lat)              | gsw.p_from_z(z,lat)                                   |
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        | (SW uses depth, not height)           |                               |                                                       |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | height from pressure                  |  z =  -sw.dpth(p,lat)         | gsw.z_from_p(p,lat)                                   |
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        | (SW outputs depth, not height)        |                               |                                                       |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | in situ temperature from pt           |  sw.temp(SP,pt,p,pr)          | gsw.pt_from_t(SA,pt,pr,p)                             |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | sound speed                           |  sw.svel(SP,t,p)              | gsw.sound_speed(SA,t,p)                               |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | isobaric heat capacity                |  sw.cp(SP,t,p)                | gsw.cp(SA,t,p)                                        |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | adiabatic lapse rate*                 |  sw.adtg(SP,t,p)              | gsw.adiabatic_lapse_rate(SA,t,p)                      |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | SP from cndr,  (PSS 78)               |  sw.salt(cndr,t,p)            | gsw.SP_from_cndr(cndr,t,p)                            |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | cndr from SP,  (PSS 78)               |  sw.cndr(SP,t,p)              | gsw.cndr_from_SP(SP,t,p)                              |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | distance                              |  sw.dist(lat,long,units)      | gsw.distance(long,lat,p)                              |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | gravitational acceleration            |  sw.g(lat,z)                  | gsw.grav(lat,p)                                       |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | Coriolis parameter                    |  sw.f(lat)                    | gsw.f(lat)                                            |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
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        | testing of all functions              |  sw.test()                    | gsw.test()                                            |
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        +---------------------------------------+-------------------------------+-------------------------------------------------------+
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | **Variable**                              | **SeaWater (EOS 80)**               | **Gibbs SeaWater (GSW TEOS 10)**                      |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | Absolute Salinity                         |          NA                         | gsw.SA_from_SP(SP,p,long,lat)                         |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | Conservative Temperature                  |          NA                         | gsw.CT_from_t(SA,t,p)                                 |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | density (i.e. in situ density)            |  sw.dens(SP,t,p)                    | gsw.rho_CT(SA,CT,p), or gsw.rho(SA,t,p), or           |
 
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        |                                           |                                     | gsw.rho_CT25(SA,CT,p)                                 |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | potential density                         |  sw.pden(SP,t,p,pr)                 | gsw.rho_CT(SA,CT,pr), or                              |
 
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        |                                           |                                     | gsw.rho_CT25(SA,CT,pr)                                |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | potential temperature                     |  sw.ptmp(SP,t,p,pr)                 | gsw.pt_from_t(SA,t,p,pr)                              |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | :math:`\sigma_0`, using                   |  sw.dens(SP, :math:`\theta_o`, 0)   | gsw.sigma0_CT(SA,CT)                                  |
 
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        |  :math:`\theta_o` = sw.ptmp(SP,t,p,0)     |  -1000 kg m :sup:`-3`               |                                                       |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | :math:`\sigma_2`, using                   |  sw.dens(SP,:math:`\theta_2`, 2000) | gsw.sigma2_CT(SA,CT)                                  |
 
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        |  :math:`\theta_2` = sw.ptmp(SP,t,p,2000)  |  -1000 kg m :sup:`-3`               |                                                       |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | :math:`\sigma_4`, using                   |  sw.dens(SP,:math:`\theta_4`, 4000) | gsw.sigma2_CT(SA,CT)                                  |
 
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        |  :math:`\theta_4` = sw.ptmp(SP,t,p,2000)  |  -1000 kg m :sup:`-3`               |                                                       |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | specific volume anomaly                   |  sw.svan(SP,t,p)                    | gsw.specvol_anom_CT(SA,CT,p)  or                      |
 
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        |                                           |                                     | gsw.specvol_anom_CT25(SA,CT,p)                        |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | dynamic height anomaly                    | -sw.gpan(SP,t,p)                    | gsw.geo_strf_dyn_height(SA,CT,p,delta_p,interp_style) |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | geostrophic velocity                      |  sw.gvel(ga,lat,long)               | gsw.geostrophic_velocity(geo_str,long,lat,p)          |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | N :sup:`2`                                |  sw.bfrq(SP,t,p,lat)                | gsw.Nsquared_CT25(SA,CT,p,lat)                        |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | pressure from height                      |  sw.pres(-z,lat)                    | gsw.p_from_z(z,lat)                                   |
 
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        | (SW uses depth, not height)               |                                     |                                                       |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | height from pressure                      |  z =  -sw.dpth(p,lat)               | gsw.z_from_p(p,lat)                                   |
 
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        | (SW outputs depth, not height)            |                                     |                                                       |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | in situ temperature from pt               |  sw.temp(SP,pt,p,pr)                | gsw.pt_from_t(SA,pt,pr,p)                             |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | sound speed                               |  sw.svel(SP,t,p)                    | gsw.sound_speed(SA,t,p)                               |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | isobaric heat capacity                    |  sw.cp(SP,t,p)                      | gsw.cp(SA,t,p)                                        |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | adiabatic lapse rate*                     |  sw.adtg(SP,t,p)                    | gsw.adiabatic_lapse_rate(SA,t,p)                      |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | SP from cndr,  (PSS 78)                   |  sw.salt(cndr,t,p)                  | gsw.SP_from_cndr(cndr,t,p)                            |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | cndr from SP,  (PSS 78)                   |  sw.cndr(SP,t,p)                    | gsw.cndr_from_SP(SP,t,p)                              |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | distance                                  |  sw.dist(lat,long,units)            | gsw.distance(long,lat,p)                              |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | gravitational acceleration                |  sw.g(lat,z)                        | gsw.grav(lat,p)                                       |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | Coriolis parameter                        |  sw.f(lat)                          | gsw.f(lat)                                            |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
 
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        | testing of all functions                  |  sw.test()                          | gsw.test()                                            |
 
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        +-------------------------------------------+-------------------------------------+-------------------------------------------------------+
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        \* The SW and GSW functions output the adiabatic lapse rate in different units, being  K (dbar) :sup:`-1`  and  K Pa :sup:`-1`  respectively.
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        Thanks
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        ======
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        * Bjørn Ådlandsvik - Testing unit and several bug fixes
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        * Eric Firing - Support for masked arrays, re-write of _delta_SA
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        * Trevor J. McDougall (and all of SCOR/IAPSO WG127) for making available the Matlab and Fortran versions of this software
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