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Source
Used by
Included schema coreprof.xsd
Namespace No namespace
Properties
attribute form default unqualified
element form default qualified
Element coreprof
Namespace No namespace
Annotations
 
Core plasma 1D profiles as a function of the toroidal flux coordinate, obtained by solving the core transport equations (can be also fitted profiles from experimental data). The codeparam element here describes the parameters of the transport equation solver and/or those of the fitting program. Time-dependent CPO.
Diagram
Diagram utilities_xsd.tmp#datainfo coreprof_xsd.tmp#coreprof_rho_tor_norm coreprof_xsd.tmp#coreprof_rho_tor coreprof_xsd.tmp#coreprof_drho_dt coreprof_xsd.tmp#coreprof_toroid_field utilities_xsd.tmp#composition utilities_xsd.tmp#desc_impur coreprof_xsd.tmp#coreprof_compositions coreprof_xsd.tmp#coreprof_psi coreprof_xsd.tmp#coreprof_te coreprof_xsd.tmp#coreprof_ti coreprof_xsd.tmp#coreprof_ne coreprof_xsd.tmp#coreprof_ni coreprof_xsd.tmp#coreprof_vtor coreprof_xsd.tmp#coreprof_profiles1d coreprof_xsd.tmp#coreprof_globalparam utilities_xsd.tmp#codeparam coreprof_xsd.tmp#coreprof_time
Properties
content complex
Used by
Element top
Model
Children codeparam, composition, compositions, datainfo, desc_impur, drho_dt, globalparam, ne, ni, profiles1d, psi, rho_tor, rho_tor_norm, te, ti, time, toroid_field, vtor
Instance
 
<coreprof>
  <datainfo>{1,1}</datainfo>
  <rho_tor_norm>{1,1}</rho_tor_norm>
  <rho_tor>{1,1}</rho_tor>
  <drho_dt>{1,1}</drho_dt>
  <toroid_field>{1,1}</toroid_field>
  <composition>{1,1}</composition>
  <desc_impur>{1,1}</desc_impur>
  <compositions>{1,1}</compositions>
  <psi>{1,1}</psi>
  <te>{1,1}</te>
  <ti>{1,1}</ti>
  <ne>{1,1}</ne>
  <ni>{1,1}</ni>
  <vtor>{1,1}</vtor>
  <profiles1d>{1,1}</profiles1d>
  <globalparam>{1,1}</globalparam>
  <codeparam>{1,1}</codeparam>
  <time>{1,1}</time>
</coreprof>
Source
 
<xs:element name="coreprof">
  <xs:annotation>
    <xs:documentation>Core plasma 1D profiles as a function of the toroidal flux coordinate, obtained by solving the core transport equations (can be also fitted profiles from experimental data). The codeparam element here describes the parameters of the transport equation solver and/or those of the fitting program. Time-dependent CPO.</xs:documentation>
  </xs:annotation>
  <xs:complexType>
    <xs:sequence>
      <xs:element ref="datainfo"/>
      <xs:element name="rho_tor_norm" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Normalised toroidal flux coordinate values (= rho_tor normalised to the value at the last radial grid point, which is quasi at the Last Closed Flux Surface); Time-dependent; Vector (nrho)</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="rho_tor" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Toroidal flux coordinate (not normalised, equivalent to rho_tor_norm) [m]; Vector (nrho). Time-dependent.</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="drho_dt" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Time derivative of rho_tor [m/s]; Vector (nrho). Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="toroid_field">
        <xs:annotation>
          <xs:documentation>Toroidal field information entering the definition of rho_tor, for reference only. The physical value of the toroidal field should be taken from the toroidfield CPO. Time-dependent.</xs:documentation>
          <xs:appinfo>machine description</xs:appinfo>
        </xs:annotation>
        <xs:complexType>
          <xs:sequence>
            <xs:element name="b0" type="xs:float">
              <xs:annotation>
                <xs:documentation>Vacuum field at r0 [T]; Time-dependent. Scalar.</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="b0prime" type="xs:float">
              <xs:annotation>
                <xs:documentation>Time derivative of the vacuum field at r0 [T/s]; Time-dependent. Scalar.</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="r0" type="xs:float">
              <xs:annotation>
                <xs:documentation>Characteristic major radius of the device (used in publications, usually middle of the vessel at the equatorial midplane) [m]. Scalar.</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="time" type="xs:float">
              <xs:annotation>
                <xs:documentation>Time [s] (exact time slice used from the time array of the source signal, here the toroidfield CPO. If the time slice does not exist in the time array of the source signal, it means linear interpolation has been used); Time-dependent; Scalar.</xs:documentation>
              </xs:annotation>
            </xs:element>
          </xs:sequence>
        </xs:complexType>
      </xs:element>
      <xs:element ref="composition"/>
      <xs:element ref="desc_impur"/>
      <xs:element name="compositions" type="compositions_type">
        <xs:annotation>
          <xs:documentation>Contains all the composition information for the simulation (main ions, impurities, neutrals, edge species).</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="psi">
        <xs:annotation>
          <xs:documentation>Poloidal magnetic flux [Wb]; Time-dependent;</xs:documentation>
        </xs:annotation>
        <xs:complexType>
          <xs:sequence>
            <xs:element name="value" type="vecflt_type" default="[0.0,0.0]">
              <xs:annotation>
                <xs:documentation>Signal value [Wb]; Time-dependent; Vector (nrho)</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="ddrho" type="vecflt_type" default="[0.0,0.0]">
              <xs:annotation>
                <xs:documentation>Radial derivative (dvalue/drho_tor) [Wb.m^-1]; Time-dependent; Vector (nrho)</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="d2drho2" type="vecflt_type" default="[0.0,0.0]">
              <xs:annotation>
                <xs:documentation>Second order radial derivative (d2value/drho_tor2) [Wb.m^-2]; Time-dependent; Vector (nrho)</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="ddt_rhotorn" type="vecflt_type">
              <xs:annotation>
                <xs:documentation>Time derivative of the poloidal flux at constant rho_tor_norm [V]. Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="ddt_phi" type="vecflt_type">
              <xs:annotation>
                <xs:documentation>Time derivative of the poloidal flux at constant toroidal flux [V]. Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="source" type="xs:string">
              <xs:annotation>
                <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="flag" type="xs:integer" default="0">
              <xs:annotation>
                <xs:documentation>Flag describing how the profile has been processed : 0-not calculated; 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Scalar</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="boundary">
              <xs:annotation>
                <xs:documentation>Boundary condition for the transport equation. Time-dependent.</xs:documentation>
              </xs:annotation>
              <xs:complexType>
                <xs:sequence>
                  <xs:element name="value" type="vecflt_type">
                    <xs:annotation>
                      <xs:documentation>Value of the boundary condition (in case flag = 2). Unit depends on type, respectively [1-Wb, 2-A, 3-V]. For type 1 to 3, only the first position in the vector is used. For type 5, all three positions are used, meaning respectively a1, a2, a3. Time-dependent. Vector(3).</xs:documentation>
                    </xs:annotation>
                  </xs:element>
                  <xs:element name="source" type="xs:string">
                    <xs:annotation>
                      <xs:documentation>Source of the boundary condition (any comment describing its origin : code, path to diagnostic signals, massaging); String</xs:documentation>
                    </xs:annotation>
                  </xs:element>
                  <xs:element name="type" type="xs:integer" default="1">
                    <xs:annotation>
                      <xs:documentation>Type of the boundary condition for the transport solver (in case flag = 2). 0- equation not solved; 1- edge value of poloidal flux; 2- total current inside boundary; 3- edge Vloop; 4- not defined; 5- generic boundary condition expressed as a1*(dpsi_drho_tor)+a2*psi=a3. . Time-dependent.Scalar</xs:documentation>
                    </xs:annotation>
                  </xs:element>
                  <xs:element name="rho" type="xs:float" default="1">
                    <xs:annotation>
                      <xs:documentation>Position of the boundary condition (in terms of toroidal flux coordinate) for the transport solver [m]. Outside this boundary, the value of the data are considered to be prescribed. Scalar</xs:documentation>
                    </xs:annotation>
                  </xs:element>
                  <xs:element ref="codeparam"/>
                </xs:sequence>
              </xs:complexType>
            </xs:element>
            <xs:element name="jni">
              <xs:annotation>
                <xs:documentation>Non-inductive parallel current density [A/m^2]; Time-dependent;</xs:documentation>
              </xs:annotation>
              <xs:complexType>
                <xs:sequence>
                  <xs:element name="value" type="vecflt_type">
                    <xs:annotation>
                      <xs:documentation>Value of jni; Time-dependent; Vector (nrho)</xs:documentation>
                      <xs:appinfo>experimental</xs:appinfo>
                    </xs:annotation>
                  </xs:element>
                  <xs:element name="integral" type="vecflt_type">
                    <xs:annotation>
                      <xs:documentation>Integral from 0 to rho of jni. Time-dependent; Vector (nrho)</xs:documentation>
                    </xs:annotation>
                  </xs:element>
                  <xs:element name="source" type="xs:string">
                    <xs:annotation>
                      <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
                    </xs:annotation>
                  </xs:element>
                </xs:sequence>
              </xs:complexType>
            </xs:element>
            <xs:element name="sigma_par" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Parallel conductivity [ohm^-1.m^-1]. Time-dependent</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element ref="codeparam"/>
          </xs:sequence>
        </xs:complexType>
      </xs:element>
      <xs:element name="te" type="corefield">
        <xs:annotation>
          <xs:documentation>Electron temperature [eV]; (source term in [W.m^-3]). Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="ti" type="corefieldion">
        <xs:annotation>
          <xs:documentation>Ion temperature [eV]; (source term in [W.m^-3]). Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="ne" type="corefield">
        <xs:annotation>
          <xs:documentation>Electron density [m^-3]; (source term in [m^-3]).Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="ni" type="corefieldion">
        <xs:annotation>
          <xs:documentation>Ion density [m^-3]; (source term in [m^-3]). Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="vtor" type="corefieldion">
        <xs:annotation>
          <xs:documentation>Toroidal velocity of the various ion species [m.s^-1]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="profiles1d">
        <xs:annotation>
          <xs:documentation>Profiles derived from the fields solved in the transport equations, or from experiment.</xs:documentation>
        </xs:annotation>
        <xs:complexType>
          <xs:sequence>
            <xs:element name="pe" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Electron pressure [Pa]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="dpedt" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Time derivative of the electron pressure [Pa/s]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="pi" type="coreprofion">
              <xs:annotation>
                <xs:documentation>Ion pressure [Pa]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="pi_tot" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Total ion pressure (sum of the species) [Pa]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="dpi_totdt" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Time derivative of the total ion pressure [Pa/s]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="pr_th" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Thermal pressure (electrons+ions) [Pa]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="pr_perp" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Total perpendicular pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="pr_parallel" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Total parallel pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="jtot" type="coreprofile">
              <xs:annotation>
                <xs:documentation>total parallel current density = average(jtot.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="jni" type="coreprofile">
              <xs:annotation>
                <xs:documentation>non-inductive parallel current density = average(jni.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="jphi" type="coreprofile">
              <xs:annotation>
                <xs:documentation>total toroidal current density = average(jphi/R) / average(1/R) [A/m^2]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="joh" type="coreprofile">
              <xs:annotation>
                <xs:documentation>ohmic parallel current density = average(joh.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="vloop" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Toroidal loop voltage [V]. Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="sigmapar" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Parallel conductivity [ohm^-1.m^-1]. Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="qoh" type="sourceel">
              <xs:annotation>
                <xs:documentation>ohmic heating [W/m^3]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="qei" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Collisional heat transfer from electrons to ions (equipartition term) [W/m^3]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="eparallel" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Parallel electric field = average(E.B) / B0, where B0 = coreprof/toroid_field/b0 [V.m^-1]. Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="e_b" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Average(E.B) [V.T.m^-1]. Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="q" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Safety factor profile; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="shear" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Magnetic shear profile; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="ns" type="coreprofion">
              <xs:annotation>
                <xs:documentation>Density of fast ions, for the various ion species [m^-3]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="mtor" type="coreprofion">
              <xs:annotation>
                <xs:documentation>Toroidal momentum of the various ion species [UNITS?]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="wtor" type="coreprofion">
              <xs:annotation>
                <xs:documentation>Angular toroidal rotation frequency of the various ion species [s^-1]; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="vpol" type="coreprofion">
              <xs:annotation>
                <xs:documentation>Neoclassical poloidal rotation of each ion species [m/s]. Time-dependent.</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="zeff" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Effective charge profile; Time-dependent;</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="bpol" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Average poloidal magnetic field, defined as sqrt(ave(grad rho^2/R^2)).dpsi/drho [T]. Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="dvprimedt" type="coreprofile">
              <xs:annotation>
                <xs:documentation>Time derivative of the radial derivative of the volume enclosed in the flux surface, i.e. d/dt(dV/drho_tor) [m^2.s^-1]; Time-dependent.</xs:documentation>
              </xs:annotation>
            </xs:element>
          </xs:sequence>
        </xs:complexType>
      </xs:element>
      <xs:element name="globalparam">
        <xs:annotation>
          <xs:documentation>Various global quantities calculated from the 1D profiles. Time-dependent</xs:documentation>
        </xs:annotation>
        <xs:complexType>
          <xs:sequence>
            <xs:element name="current_tot" type="xs:float">
              <xs:annotation>
                <xs:documentation>Total plasma current [A]; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="current_bnd" type="xs:float">
              <xs:annotation>
                <xs:documentation>Plasma current inside transport solver boundary rho_tor_bnd [A]; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="current_ni" type="xs:float">
              <xs:annotation>
                <xs:documentation>Total non-inductive parallel current [A]; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="vloop" type="xs:float">
              <xs:annotation>
                <xs:documentation>Toroidal loop voltage [V]; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="li" type="xs:float">
              <xs:annotation>
                <xs:documentation>Internal inductance; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="beta_tor" type="xs:float" default="0.0">
              <xs:annotation>
                <xs:documentation>toroidal beta; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="beta_normal" type="xs:float" default="0.0">
              <xs:annotation>
                <xs:documentation>normalised beta; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="beta_pol" type="xs:float" default="0.0">
              <xs:annotation>
                <xs:documentation>poloidal beta; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="w_dia" type="xs:float" default="0.0">
              <xs:annotation>
                <xs:documentation>Plasma energy content = 3/2 * int(p,dV) with p being the total pressure (pr_th + pr_perp). Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="geom_axis" type="rz0D">
              <xs:annotation>
                <xs:documentation>RZ position of the geometric axis (defined as (Rmin+Rmax) / 2 and (Zmin+Zmax) / 2 of the boundary) [m]; Time-dependent; Scalar</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
          </xs:sequence>
        </xs:complexType>
      </xs:element>
      <xs:element ref="codeparam"/>
      <xs:element name="time" type="xs:float" default="0.0">
        <xs:annotation>
          <xs:documentation>Time [s]; Time-dependent; Scalar</xs:documentation>
        </xs:annotation>
      </xs:element>
    </xs:sequence>
  </xs:complexType>
</xs:element>
Element coreprof / rho_tor_norm
Namespace No namespace
Annotations
 
Normalised toroidal flux coordinate values (= rho_tor normalised to the value at the last radial grid point, which is quasi at the Last Closed Flux Surface); Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="rho_tor_norm" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Normalised toroidal flux coordinate values (= rho_tor normalised to the value at the last radial grid point, which is quasi at the Last Closed Flux Surface); Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / rho_tor
Namespace No namespace
Annotations
 
Toroidal flux coordinate (not normalised, equivalent to rho_tor_norm) [m]; Vector (nrho). Time-dependent.
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="rho_tor" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Toroidal flux coordinate (not normalised, equivalent to rho_tor_norm) [m]; Vector (nrho). Time-dependent.</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / drho_dt
Namespace No namespace
Annotations
 
Time derivative of rho_tor [m/s]; Vector (nrho). Time-dependent.
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="drho_dt" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Time derivative of rho_tor [m/s]; Vector (nrho). Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / toroid_field
Namespace No namespace
Annotations
 
Toroidal field information entering the definition of rho_tor, for reference only. The physical value of the toroidal field should be taken from the toroidfield CPO. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprof_coreprof_toroid_field_b0 coreprof_xsd.tmp#coreprof_coreprof_toroid_field_b0prime coreprof_xsd.tmp#coreprof_coreprof_toroid_field_r0 coreprof_xsd.tmp#coreprof_coreprof_toroid_field_time
Properties
content complex
Model
Children b0, b0prime, r0, time
Instance
 
<toroid_field>
  <b0>{1,1}</b0>
  <b0prime>{1,1}</b0prime>
  <r0>{1,1}</r0>
  <time>{1,1}</time>
</toroid_field>
Source
 
<xs:element name="toroid_field">
  <xs:annotation>
    <xs:documentation>Toroidal field information entering the definition of rho_tor, for reference only. The physical value of the toroidal field should be taken from the toroidfield CPO. Time-dependent.</xs:documentation>
    <xs:appinfo>machine description</xs:appinfo>
  </xs:annotation>
  <xs:complexType>
    <xs:sequence>
      <xs:element name="b0" type="xs:float">
        <xs:annotation>
          <xs:documentation>Vacuum field at r0 [T]; Time-dependent. Scalar.</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="b0prime" type="xs:float">
        <xs:annotation>
          <xs:documentation>Time derivative of the vacuum field at r0 [T/s]; Time-dependent. Scalar.</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="r0" type="xs:float">
        <xs:annotation>
          <xs:documentation>Characteristic major radius of the device (used in publications, usually middle of the vessel at the equatorial midplane) [m]. Scalar.</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="time" type="xs:float">
        <xs:annotation>
          <xs:documentation>Time [s] (exact time slice used from the time array of the source signal, here the toroidfield CPO. If the time slice does not exist in the time array of the source signal, it means linear interpolation has been used); Time-dependent; Scalar.</xs:documentation>
        </xs:annotation>
      </xs:element>
    </xs:sequence>
  </xs:complexType>
</xs:element>
Element coreprof / toroid_field / b0
Namespace No namespace
Annotations
 
Vacuum field at r0 [T]; Time-dependent. Scalar.
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="b0" type="xs:float">
  <xs:annotation>
    <xs:documentation>Vacuum field at r0 [T]; Time-dependent. Scalar.</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / toroid_field / b0prime
Namespace No namespace
Annotations
 
Time derivative of the vacuum field at r0 [T/s]; Time-dependent. Scalar.
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="b0prime" type="xs:float">
  <xs:annotation>
    <xs:documentation>Time derivative of the vacuum field at r0 [T/s]; Time-dependent. Scalar.</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / toroid_field / r0
Namespace No namespace
Annotations
 
Characteristic major radius of the device (used in publications, usually middle of the vessel at the equatorial midplane) [m]. Scalar.
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="r0" type="xs:float">
  <xs:annotation>
    <xs:documentation>Characteristic major radius of the device (used in publications, usually middle of the vessel at the equatorial midplane) [m]. Scalar.</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / toroid_field / time
Namespace No namespace
Annotations
 
Time [s] (exact time slice used from the time array of the source signal, here the toroidfield CPO. If the time slice does not exist in the time array of the source signal, it means linear interpolation has been used); Time-dependent; Scalar.
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="time" type="xs:float">
  <xs:annotation>
    <xs:documentation>Time [s] (exact time slice used from the time array of the source signal, here the toroidfield CPO. If the time slice does not exist in the time array of the source signal, it means linear interpolation has been used); Time-dependent; Scalar.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / compositions
Namespace No namespace
Annotations
 
Contains all the composition information for the simulation (main ions, impurities, neutrals, edge species).
Diagram
Diagram utilities_xsd.tmp#compositions_type_nuclei utilities_xsd.tmp#compositions_type_ions utilities_xsd.tmp#compositions_type_impurities utilities_xsd.tmp#compositions_type_neutralscomp utilities_xsd.tmp#compositions_type_edgespecies utilities_xsd.tmp#compositions_type_signature utilities_xsd.tmp#compositions_type
Type compositions_type
Properties
content complex
Model
Children edgespecies, impurities, ions, neutralscomp, nuclei, signature
Instance
 
<compositions>
  <nuclei>{1,unbounded}</nuclei>
  <ions>{1,unbounded}</ions>
  <impurities>{0,unbounded}</impurities>
  <neutralscomp>{0,unbounded}</neutralscomp>
  <edgespecies>{0,unbounded}</edgespecies>
  <signature>{1,1}</signature>
</compositions>
Source
 
<xs:element name="compositions" type="compositions_type">
  <xs:annotation>
    <xs:documentation>Contains all the composition information for the simulation (main ions, impurities, neutrals, edge species).</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi
Namespace No namespace
Annotations
 
Poloidal magnetic flux [Wb]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprof_coreprof_psi_value coreprof_xsd.tmp#coreprof_coreprof_psi_ddrho coreprof_xsd.tmp#coreprof_coreprof_psi_d2drho2 coreprof_xsd.tmp#coreprof_coreprof_psi_ddt_rhotorn coreprof_xsd.tmp#coreprof_coreprof_psi_ddt_phi coreprof_xsd.tmp#coreprof_coreprof_psi_source coreprof_xsd.tmp#coreprof_coreprof_psi_flag coreprof_xsd.tmp#coreprof_coreprof_psi_boundary coreprof_xsd.tmp#coreprof_coreprof_psi_jni coreprof_xsd.tmp#coreprof_coreprof_psi_sigma_par utilities_xsd.tmp#codeparam
Properties
content complex
Model
Children boundary, codeparam, d2drho2, ddrho, ddt_phi, ddt_rhotorn, flag, jni, sigma_par, source, value
Instance
 
<psi>
  <value>{1,1}</value>
  <ddrho>{1,1}</ddrho>
  <d2drho2>{1,1}</d2drho2>
  <ddt_rhotorn>{1,1}</ddt_rhotorn>
  <ddt_phi>{1,1}</ddt_phi>
  <source>{1,1}</source>
  <flag>{1,1}</flag>
  <boundary>{1,1}</boundary>
  <jni>{1,1}</jni>
  <sigma_par>{1,1}</sigma_par>
  <codeparam>{1,1}</codeparam>
</psi>
Source
 
<xs:element name="psi">
  <xs:annotation>
    <xs:documentation>Poloidal magnetic flux [Wb]; Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:complexType>
    <xs:sequence>
      <xs:element name="value" type="vecflt_type" default="[0.0,0.0]">
        <xs:annotation>
          <xs:documentation>Signal value [Wb]; Time-dependent; Vector (nrho)</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="ddrho" type="vecflt_type" default="[0.0,0.0]">
        <xs:annotation>
          <xs:documentation>Radial derivative (dvalue/drho_tor) [Wb.m^-1]; Time-dependent; Vector (nrho)</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="d2drho2" type="vecflt_type" default="[0.0,0.0]">
        <xs:annotation>
          <xs:documentation>Second order radial derivative (d2value/drho_tor2) [Wb.m^-2]; Time-dependent; Vector (nrho)</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="ddt_rhotorn" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Time derivative of the poloidal flux at constant rho_tor_norm [V]. Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="ddt_phi" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Time derivative of the poloidal flux at constant toroidal flux [V]. Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="source" type="xs:string">
        <xs:annotation>
          <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="flag" type="xs:integer" default="0">
        <xs:annotation>
          <xs:documentation>Flag describing how the profile has been processed : 0-not calculated; 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Scalar</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="boundary">
        <xs:annotation>
          <xs:documentation>Boundary condition for the transport equation. Time-dependent.</xs:documentation>
        </xs:annotation>
        <xs:complexType>
          <xs:sequence>
            <xs:element name="value" type="vecflt_type">
              <xs:annotation>
                <xs:documentation>Value of the boundary condition (in case flag = 2). Unit depends on type, respectively [1-Wb, 2-A, 3-V]. For type 1 to 3, only the first position in the vector is used. For type 5, all three positions are used, meaning respectively a1, a2, a3. Time-dependent. Vector(3).</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="source" type="xs:string">
              <xs:annotation>
                <xs:documentation>Source of the boundary condition (any comment describing its origin : code, path to diagnostic signals, massaging); String</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="type" type="xs:integer" default="1">
              <xs:annotation>
                <xs:documentation>Type of the boundary condition for the transport solver (in case flag = 2). 0- equation not solved; 1- edge value of poloidal flux; 2- total current inside boundary; 3- edge Vloop; 4- not defined; 5- generic boundary condition expressed as a1*(dpsi_drho_tor)+a2*psi=a3. . Time-dependent.Scalar</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="rho" type="xs:float" default="1">
              <xs:annotation>
                <xs:documentation>Position of the boundary condition (in terms of toroidal flux coordinate) for the transport solver [m]. Outside this boundary, the value of the data are considered to be prescribed. Scalar</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element ref="codeparam"/>
          </xs:sequence>
        </xs:complexType>
      </xs:element>
      <xs:element name="jni">
        <xs:annotation>
          <xs:documentation>Non-inductive parallel current density [A/m^2]; Time-dependent;</xs:documentation>
        </xs:annotation>
        <xs:complexType>
          <xs:sequence>
            <xs:element name="value" type="vecflt_type">
              <xs:annotation>
                <xs:documentation>Value of jni; Time-dependent; Vector (nrho)</xs:documentation>
                <xs:appinfo>experimental</xs:appinfo>
              </xs:annotation>
            </xs:element>
            <xs:element name="integral" type="vecflt_type">
              <xs:annotation>
                <xs:documentation>Integral from 0 to rho of jni. Time-dependent; Vector (nrho)</xs:documentation>
              </xs:annotation>
            </xs:element>
            <xs:element name="source" type="xs:string">
              <xs:annotation>
                <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
              </xs:annotation>
            </xs:element>
          </xs:sequence>
        </xs:complexType>
      </xs:element>
      <xs:element name="sigma_par" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Parallel conductivity [ohm^-1.m^-1]. Time-dependent</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element ref="codeparam"/>
    </xs:sequence>
  </xs:complexType>
</xs:element>
Element coreprof / psi / value
Namespace No namespace
Annotations
 
Signal value [Wb]; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="value" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Signal value [Wb]; Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / psi / ddrho
Namespace No namespace
Annotations
 
Radial derivative (dvalue/drho_tor) [Wb.m^-1]; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="ddrho" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Radial derivative (dvalue/drho_tor) [Wb.m^-1]; Time-dependent; Vector (nrho)</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / d2drho2
Namespace No namespace
Annotations
 
Second order radial derivative (d2value/drho_tor2) [Wb.m^-2]; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="d2drho2" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Second order radial derivative (d2value/drho_tor2) [Wb.m^-2]; Time-dependent; Vector (nrho)</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / ddt_rhotorn
Namespace No namespace
Annotations
 
Time derivative of the poloidal flux at constant rho_tor_norm [V]. Time-dependent.
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="ddt_rhotorn" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Time derivative of the poloidal flux at constant rho_tor_norm [V]. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / ddt_phi
Namespace No namespace
Annotations
 
Time derivative of the poloidal flux at constant toroidal flux [V]. Time-dependent.
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="ddt_phi" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Time derivative of the poloidal flux at constant toroidal flux [V]. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String
Diagram
Diagram
Type xs:string
Properties
content simple
Source
 
<xs:element name="source" type="xs:string">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / flag
Namespace No namespace
Annotations
 
Flag describing how the profile has been processed : 0-not calculated; 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Scalar
Diagram
Diagram
Type xs:integer
Properties
content simple
default 0
Source
 
<xs:element name="flag" type="xs:integer" default="0">
  <xs:annotation>
    <xs:documentation>Flag describing how the profile has been processed : 0-not calculated; 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Scalar</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / boundary
Namespace No namespace
Annotations
 
Boundary condition for the transport equation. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprof_coreprof_psi_coreprof_coreprof_psi_boundary_value coreprof_xsd.tmp#coreprof_coreprof_psi_coreprof_coreprof_psi_boundary_source coreprof_xsd.tmp#coreprof_coreprof_psi_coreprof_coreprof_psi_boundary_type coreprof_xsd.tmp#coreprof_coreprof_psi_coreprof_coreprof_psi_boundary_rho utilities_xsd.tmp#codeparam
Properties
content complex
Model
Children codeparam, rho, source, type, value
Instance
 
<boundary>
  <value>{1,1}</value>
  <source>{1,1}</source>
  <type>{1,1}</type>
  <rho>{1,1}</rho>
  <codeparam>{1,1}</codeparam>
</boundary>
Source
 
<xs:element name="boundary">
  <xs:annotation>
    <xs:documentation>Boundary condition for the transport equation. Time-dependent.</xs:documentation>
  </xs:annotation>
  <xs:complexType>
    <xs:sequence>
      <xs:element name="value" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Value of the boundary condition (in case flag = 2). Unit depends on type, respectively [1-Wb, 2-A, 3-V]. For type 1 to 3, only the first position in the vector is used. For type 5, all three positions are used, meaning respectively a1, a2, a3. Time-dependent. Vector(3).</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="source" type="xs:string">
        <xs:annotation>
          <xs:documentation>Source of the boundary condition (any comment describing its origin : code, path to diagnostic signals, massaging); String</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="type" type="xs:integer" default="1">
        <xs:annotation>
          <xs:documentation>Type of the boundary condition for the transport solver (in case flag = 2). 0- equation not solved; 1- edge value of poloidal flux; 2- total current inside boundary; 3- edge Vloop; 4- not defined; 5- generic boundary condition expressed as a1*(dpsi_drho_tor)+a2*psi=a3. . Time-dependent.Scalar</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="rho" type="xs:float" default="1">
        <xs:annotation>
          <xs:documentation>Position of the boundary condition (in terms of toroidal flux coordinate) for the transport solver [m]. Outside this boundary, the value of the data are considered to be prescribed. Scalar</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element ref="codeparam"/>
    </xs:sequence>
  </xs:complexType>
</xs:element>
Element coreprof / psi / boundary / value
Namespace No namespace
Annotations
 
Value of the boundary condition (in case flag = 2). Unit depends on type, respectively [1-Wb, 2-A, 3-V]. For type 1 to 3, only the first position in the vector is used. For type 5, all three positions are used, meaning respectively a1, a2, a3. Time-dependent. Vector(3).
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="value" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Value of the boundary condition (in case flag = 2). Unit depends on type, respectively [1-Wb, 2-A, 3-V]. For type 1 to 3, only the first position in the vector is used. For type 5, all three positions are used, meaning respectively a1, a2, a3. Time-dependent. Vector(3).</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / boundary / source
Namespace No namespace
Annotations
 
Source of the boundary condition (any comment describing its origin : code, path to diagnostic signals, massaging); String
Diagram
Diagram
Type xs:string
Properties
content simple
Source
 
<xs:element name="source" type="xs:string">
  <xs:annotation>
    <xs:documentation>Source of the boundary condition (any comment describing its origin : code, path to diagnostic signals, massaging); String</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / boundary / type
Namespace No namespace
Annotations
 
Type of the boundary condition for the transport solver (in case flag = 2). 0- equation not solved; 1- edge value of poloidal flux; 2- total current inside boundary; 3- edge Vloop; 4- not defined; 5- generic boundary condition expressed as a1*(dpsi_drho_tor)+a2*psi=a3. . Time-dependent.Scalar
Diagram
Diagram
Type xs:integer
Properties
content simple
default 1
Source
 
<xs:element name="type" type="xs:integer" default="1">
  <xs:annotation>
    <xs:documentation>Type of the boundary condition for the transport solver (in case flag = 2). 0- equation not solved; 1- edge value of poloidal flux; 2- total current inside boundary; 3- edge Vloop; 4- not defined; 5- generic boundary condition expressed as a1*(dpsi_drho_tor)+a2*psi=a3. . Time-dependent.Scalar</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / boundary / rho
Namespace No namespace
Annotations
 
Position of the boundary condition (in terms of toroidal flux coordinate) for the transport solver [m]. Outside this boundary, the value of the data are considered to be prescribed. Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
default 1
Source
 
<xs:element name="rho" type="xs:float" default="1">
  <xs:annotation>
    <xs:documentation>Position of the boundary condition (in terms of toroidal flux coordinate) for the transport solver [m]. Outside this boundary, the value of the data are considered to be prescribed. Scalar</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / jni
Namespace No namespace
Annotations
 
Non-inductive parallel current density [A/m^2]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprof_coreprof_psi_coreprof_coreprof_psi_jni_value coreprof_xsd.tmp#coreprof_coreprof_psi_coreprof_coreprof_psi_jni_integral coreprof_xsd.tmp#coreprof_coreprof_psi_coreprof_coreprof_psi_jni_source
Properties
content complex
Model
Children integral, source, value
Instance
 
<jni>
  <value>{1,1}</value>
  <integral>{1,1}</integral>
  <source>{1,1}</source>
</jni>
Source
 
<xs:element name="jni">
  <xs:annotation>
    <xs:documentation>Non-inductive parallel current density [A/m^2]; Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:complexType>
    <xs:sequence>
      <xs:element name="value" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Value of jni; Time-dependent; Vector (nrho)</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="integral" type="vecflt_type">
        <xs:annotation>
          <xs:documentation>Integral from 0 to rho of jni. Time-dependent; Vector (nrho)</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="source" type="xs:string">
        <xs:annotation>
          <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
        </xs:annotation>
      </xs:element>
    </xs:sequence>
  </xs:complexType>
</xs:element>
Element coreprof / psi / jni / value
Namespace No namespace
Annotations
 
Value of jni; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="value" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Value of jni; Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / psi / jni / integral
Namespace No namespace
Annotations
 
Integral from 0 to rho of jni. Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="integral" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Integral from 0 to rho of jni. Time-dependent; Vector (nrho)</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / jni / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String
Diagram
Diagram
Type xs:string
Properties
content simple
Source
 
<xs:element name="source" type="xs:string">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / psi / sigma_par
Namespace No namespace
Annotations
 
Parallel conductivity [ohm^-1.m^-1]. Time-dependent
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<sigma_par>
  <value>{1,1}</value>
  <source>{1,1}</source>
</sigma_par>
Source
 
<xs:element name="sigma_par" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Parallel conductivity [ohm^-1.m^-1]. Time-dependent</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprofile / value
Namespace No namespace
Annotations
 
Signal value; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="value" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Signal value; Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprofile / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String
Diagram
Diagram
Type xs:string
Properties
content simple
Source
 
<xs:element name="source" type="xs:string">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / te
Namespace No namespace
Annotations
 
Electron temperature [eV]; (source term in [W.m^-3]). Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#corefield_value coreprof_xsd.tmp#corefield_ddrho coreprof_xsd.tmp#corefield_d2drho2 coreprof_xsd.tmp#corefield_ddt coreprof_xsd.tmp#corefield_source coreprof_xsd.tmp#corefield_flag coreprof_xsd.tmp#corefield_boundary coreprof_xsd.tmp#corefield_source_term coreprof_xsd.tmp#corefield_transp_coef coreprof_xsd.tmp#corefield_flux coreprof_xsd.tmp#corefield_flux_dv_surf coreprof_xsd.tmp#corefield_time_deriv utilities_xsd.tmp#codeparam coreprof_xsd.tmp#corefield
Type corefield
Properties
content complex
Model
Children boundary, codeparam, d2drho2, ddrho, ddt, flag, flux, flux_dv_surf, source, source_term, time_deriv, transp_coef, value
Instance
 
<te>
  <value>{1,1}</value>
  <ddrho>{1,1}</ddrho>
  <d2drho2>{1,1}</d2drho2>
  <ddt>{1,1}</ddt>
  <source>{1,1}</source>
  <flag>{1,1}</flag>
  <boundary>{1,1}</boundary>
  <source_term>{1,1}</source_term>
  <transp_coef>{1,1}</transp_coef>
  <flux>{1,1}</flux>
  <flux_dv_surf>{1,1}</flux_dv_surf>
  <time_deriv>{1,1}</time_deriv>
  <codeparam>{1,1}</codeparam>
</te>
Source
 
<xs:element name="te" type="corefield">
  <xs:annotation>
    <xs:documentation>Electron temperature [eV]; (source term in [W.m^-3]). Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefield / value
Namespace No namespace
Annotations
 
Signal value; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="value" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Signal value; Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefield / ddrho
Namespace No namespace
Annotations
 
Radial derivative (dvalue/drho_tor) [signal_value_unit.m^-1]; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="ddrho" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Radial derivative (dvalue/drho_tor) [signal_value_unit.m^-1]; Time-dependent; Vector (nrho)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefield / d2drho2
Namespace No namespace
Annotations
 
Second order radial derivative (d2value/drho_tor^2) [signal_value_unit.m^-2]; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="d2drho2" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Second order radial derivative (d2value/drho_tor^2) [signal_value_unit.m^-2]; Time-dependent; Vector (nrho)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefield / ddt
Namespace No namespace
Annotations
 
Time derivative (dvalue/dtime) [signal_value_unit.s^-1]; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
default [0.0,0.0]
final restriction
Source
 
<xs:element name="ddt" type="vecflt_type" default="[0.0,0.0]">
  <xs:annotation>
    <xs:documentation>Time derivative (dvalue/dtime) [signal_value_unit.s^-1]; Time-dependent; Vector (nrho)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefield / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String
Diagram
Diagram
Type xs:string
Properties
content simple
Source
 
<xs:element name="source" type="xs:string">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefield / flag
Namespace No namespace
Annotations
 
Flag describing how the profile has been processed : 0-not calculated 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Scalar
Diagram
Diagram
Type xs:integer
Properties
content simple
default 0
Source
 
<xs:element name="flag" type="xs:integer" default="0">
  <xs:annotation>
    <xs:documentation>Flag describing how the profile has been processed : 0-not calculated 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Scalar</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefield / boundary
Namespace No namespace
Annotations
 
Boundary condition for the transport equation. Time-dependent.
Diagram
Diagram utilities_xsd.tmp#boundaryel_value utilities_xsd.tmp#boundaryel_source utilities_xsd.tmp#boundaryel_type utilities_xsd.tmp#boundaryel_rho_tor utilities_xsd.tmp#boundaryel
Type boundaryel
Properties
content complex
Model
Children rho_tor, source, type, value
Instance
 
<boundary>
  <value>{1,1}</value>
  <source>{1,1}</source>
  <type>{1,1}</type>
  <rho_tor>{1,1}</rho_tor>
</boundary>
Source
 
<xs:element name="boundary" type="boundaryel">
  <xs:annotation>
    <xs:documentation>Boundary condition for the transport equation. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefield / source_term
Namespace No namespace
Annotations
 
Total source term for the transport equation. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#sourceel_value coreprof_xsd.tmp#sourceel_integral coreprof_xsd.tmp#sourceel_source coreprof_xsd.tmp#sourceel
Type sourceel
Properties
content complex
Model
Children integral, source, value
Instance
 
<source_term>
  <value>{1,1}</value>
  <integral>{1,1}</integral>
  <source>{1,1}</source>
</source_term>
Source
 
<xs:element name="source_term" type="sourceel">
  <xs:annotation>
    <xs:documentation>Total source term for the transport equation. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element sourceel / value
Namespace No namespace
Annotations
 
Value of the source term; Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="value" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Value of the source term; Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element sourceel / integral
Namespace No namespace
Annotations
 
Integral from 0 to rho of the source term. Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="integral" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Integral from 0 to rho of the source term. Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element sourceel / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String
Diagram
Diagram
Type xs:string
Properties
content simple
Source
 
<xs:element name="source" type="xs:string">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefield / transp_coef
Namespace No namespace
Annotations
 
Total transport coefficients. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coretransel_diff coreprof_xsd.tmp#coretransel_vconv coreprof_xsd.tmp#coretransel_source coreprof_xsd.tmp#coretransel
Type coretransel
Properties
content complex
Model
Children diff, source, vconv
Instance
 
<transp_coef>
  <diff>{1,1}</diff>
  <vconv>{1,1}</vconv>
  <source>{1,1}</source>
</transp_coef>
Source
 
<xs:element name="transp_coef" type="coretransel">
  <xs:annotation>
    <xs:documentation>Total transport coefficients. Time-dependent.</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coretransel / diff
Namespace No namespace
Annotations
 
Diffusion coefficient [m^2.s^-1]. Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="diff" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Diffusion coefficient [m^2.s^-1]. Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coretransel / vconv
Namespace No namespace
Annotations
 
Convection coefficient [m.s^-1]. Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="vconv" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Convection coefficient [m.s^-1]. Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coretransel / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String
Diagram
Diagram
Type xs:string
Properties
content simple
Source
 
<xs:element name="source" type="xs:string">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefield / flux
Namespace No namespace
Annotations
 
Fluxes of the quantity, two definitions. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#fluxel_flux_dv coreprof_xsd.tmp#fluxel_flux_interp coreprof_xsd.tmp#fluxel
Type fluxel
Properties
content complex
Model
Children flux_dv, flux_interp
Instance
 
<flux>
  <flux_dv>{1,1}</flux_dv>
  <flux_interp>{1,1}</flux_interp>
</flux>
Source
 
<xs:element name="flux" type="fluxel">
  <xs:annotation>
    <xs:documentation>Fluxes of the quantity, two definitions. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element fluxel / flux_dv
Namespace No namespace
Annotations
 
Flux of the field calculated from the transport coefficients. Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="flux_dv" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Flux of the field calculated from the transport coefficients. Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element fluxel / flux_interp
Namespace No namespace
Annotations
 
Interpretative flux deduced from measured data, the integral of the source term, and the time derivative of the field. Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="flux_interp" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Interpretative flux deduced from measured data, the integral of the source term, and the time derivative of the field. Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefield / flux_dv_surf
Namespace No namespace
Annotations
 
Net flux through the magnetic surface, i.e. integral over the magnetic surface area of flux_dv. Time-dependent; Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="flux_dv_surf" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Net flux through the magnetic surface, i.e. integral over the magnetic surface area of flux_dv. Time-dependent; Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefield / time_deriv
Namespace No namespace
Annotations
 
Integral of the time derivative term of the transport equation. Time-dependent. Vector (nrho)
Diagram
Diagram utilities_xsd.tmp#vecflt_type
Type vecflt_type
Properties
content simple
final restriction
Source
 
<xs:element name="time_deriv" type="vecflt_type">
  <xs:annotation>
    <xs:documentation>Integral of the time derivative term of the transport equation. Time-dependent. Vector (nrho)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / ti
Namespace No namespace
Annotations
 
Ion temperature [eV]; (source term in [W.m^-3]). Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#corefieldion_value coreprof_xsd.tmp#corefieldion_ddrho coreprof_xsd.tmp#corefieldion_d2drho2 coreprof_xsd.tmp#corefieldion_ddt coreprof_xsd.tmp#corefieldion_source coreprof_xsd.tmp#corefieldion_flag coreprof_xsd.tmp#corefieldion_boundary coreprof_xsd.tmp#corefieldion_source_term coreprof_xsd.tmp#corefieldion_transp_coef coreprof_xsd.tmp#corefieldion_flux coreprof_xsd.tmp#corefieldion_flux_dv_surf coreprof_xsd.tmp#corefieldion_time_deriv utilities_xsd.tmp#codeparam coreprof_xsd.tmp#corefieldion
Type corefieldion
Properties
content complex
Model
Children boundary, codeparam, d2drho2, ddrho, ddt, flag, flux, flux_dv_surf, source, source_term, time_deriv, transp_coef, value
Instance
 
<ti>
  <value>{1,1}</value>
  <ddrho>{1,1}</ddrho>
  <d2drho2>{1,1}</d2drho2>
  <ddt>{1,1}</ddt>
  <source>{1,1}</source>
  <flag>{1,1}</flag>
  <boundary>{1,1}</boundary>
  <source_term>{1,1}</source_term>
  <transp_coef>{1,1}</transp_coef>
  <flux>{1,1}</flux>
  <flux_dv_surf>{1,1}</flux_dv_surf>
  <time_deriv>{1,1}</time_deriv>
  <codeparam>{1,1}</codeparam>
</ti>
Source
 
<xs:element name="ti" type="corefieldion">
  <xs:annotation>
    <xs:documentation>Ion temperature [eV]; (source term in [W.m^-3]). Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / value
Namespace No namespace
Annotations
 
Signal value; Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
default [[0.0,0.0],[0.0,0.0]]
Source
 
<xs:element name="value" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
  <xs:annotation>
    <xs:documentation>Signal value; Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefieldion / ddrho
Namespace No namespace
Annotations
 
Radial derivative (dvalue/drho_tor) [signal_value_unit.m^-1]; Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="ddrho" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Radial derivative (dvalue/drho_tor) [signal_value_unit.m^-1]; Time-dependent; Matrix (nrho,nion)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / d2drho2
Namespace No namespace
Annotations
 
Second order radial derivative (d2value/drho_tor^2) [signal_value_unit.m^-2]; Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="d2drho2" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Second order radial derivative (d2value/drho_tor^2) [signal_value_unit.m^-2]; Time-dependent; Matrix (nrho,nion)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / ddt
Namespace No namespace
Annotations
 
Time derivative (dvalue/dtime) [signal_value_unit.s^-1]; Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="ddt" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Time derivative (dvalue/dtime) [signal_value_unit.s^-1]; Time-dependent; Matrix (nrho,nion)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)
Diagram
Diagram utilities_xsd.tmp#vecstring_type
Type vecstring_type
Properties
content simple
Source
 
<xs:element name="source" type="vecstring_type">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / flag
Namespace No namespace
Annotations
 
Flag describing how the profile has been processed : 0-not calculated 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Vector(nion)
Diagram
Diagram utilities_xsd.tmp#vecint_type
Type vecint_type
Properties
content simple
default [0,0]
Source
 
<xs:element name="flag" type="vecint_type" default="[0,0]">
  <xs:annotation>
    <xs:documentation>Flag describing how the profile has been processed : 0-not calculated 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Vector(nion)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / boundary
Namespace No namespace
Annotations
 
Boundary condition for the transport equation
Diagram
Diagram utilities_xsd.tmp#boundaryion_value utilities_xsd.tmp#boundaryion_source utilities_xsd.tmp#boundaryion_type utilities_xsd.tmp#boundaryion_rho_tor utilities_xsd.tmp#boundaryion
Type boundaryion
Properties
content complex
Model
Children rho_tor, source, type, value
Instance
 
<boundary>
  <value>{1,1}</value>
  <source>{1,1}</source>
  <type>{1,1}</type>
  <rho_tor>{1,1}</rho_tor>
</boundary>
Source
 
<xs:element name="boundary" type="boundaryion">
  <xs:annotation>
    <xs:documentation>Boundary condition for the transport equation</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / source_term
Namespace No namespace
Annotations
 
Total source term for the transport equation. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#sourceion_value coreprof_xsd.tmp#sourceion_integral coreprof_xsd.tmp#sourceion_source coreprof_xsd.tmp#sourceion
Type sourceion
Properties
content complex
Model
Children integral, source, value
Instance
 
<source_term>
  <value>{1,1}</value>
  <integral>{1,1}</integral>
  <source>{1,1}</source>
</source_term>
Source
 
<xs:element name="source_term" type="sourceion">
  <xs:annotation>
    <xs:documentation>Total source term for the transport equation. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element sourceion / value
Namespace No namespace
Annotations
 
Value of the source term; Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="value" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Value of the source term; Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element sourceion / integral
Namespace No namespace
Annotations
 
Integral from 0 to rho of the source term. Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="integral" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Integral from 0 to rho of the source term. Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element sourceion / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)
Diagram
Diagram utilities_xsd.tmp#vecstring_type
Type vecstring_type
Properties
content simple
Source
 
<xs:element name="source" type="vecstring_type">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
  </xs:annotation>
</xs:element>
Element corefieldion / transp_coef
Namespace No namespace
Annotations
 
Total transport coefficients. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coretransion_diff coreprof_xsd.tmp#coretransion_vconv coreprof_xsd.tmp#coretransion_source coreprof_xsd.tmp#coretransion
Type coretransion
Properties
content complex
Model
Children diff, source, vconv
Instance
 
<transp_coef>
  <diff>{1,1}</diff>
  <vconv>{1,1}</vconv>
  <source>{1,1}</source>
</transp_coef>
Source
 
<xs:element name="transp_coef" type="coretransion">
  <xs:annotation>
    <xs:documentation>Total transport coefficients. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coretransion / diff
Namespace No namespace
Annotations
 
Diffusion coefficient [m^2.s^-1]. Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="diff" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Diffusion coefficient [m^2.s^-1]. Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coretransion / vconv
Namespace No namespace
Annotations
 
Convection coefficient [m.s^-1]. Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="vconv" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Convection coefficient [m.s^-1]. Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coretransion / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)
Diagram
Diagram utilities_xsd.tmp#vecstring_type
Type vecstring_type
Properties
content simple
Source
 
<xs:element name="source" type="vecstring_type">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefieldion / flux
Namespace No namespace
Annotations
 
Fluxes of the quantity, two definitions. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#fluxion_flux_dv coreprof_xsd.tmp#fluxion_flux_interp coreprof_xsd.tmp#fluxion
Type fluxion
Properties
content complex
Model
Children flux_dv, flux_interp
Instance
 
<flux>
  <flux_dv>{1,1}</flux_dv>
  <flux_interp>{1,1}</flux_interp>
</flux>
Source
 
<xs:element name="flux" type="fluxion">
  <xs:annotation>
    <xs:documentation>Fluxes of the quantity, two definitions. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element fluxion / flux_dv
Namespace No namespace
Annotations
 
Flux of the field calculated from the transport coefficients. Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
default [[0.0,0.0],[0.0,0.0]]
Source
 
<xs:element name="flux_dv" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
  <xs:annotation>
    <xs:documentation>Flux of the field calculated from the transport coefficients. Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element fluxion / flux_interp
Namespace No namespace
Annotations
 
Interpretative flux deduced from measured data, the integral of the source term, and the time derivative of the field. Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
default [[0.0,0.0],[0.0,0.0]]
Source
 
<xs:element name="flux_interp" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
  <xs:annotation>
    <xs:documentation>Interpretative flux deduced from measured data, the integral of the source term, and the time derivative of the field. Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefieldion / flux_dv_surf
Namespace No namespace
Annotations
 
Net flux through the magnetic surface, i.e. integral over the magnetic surface area of flux_dv. Time-dependent; Matrix(nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="flux_dv_surf" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Net flux through the magnetic surface, i.e. integral over the magnetic surface area of flux_dv. Time-dependent; Matrix(nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element corefieldion / time_deriv
Namespace No namespace
Annotations
 
Integral of the time derivative term of the transport equation. Time-dependent. Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
Source
 
<xs:element name="time_deriv" type="matflt_type">
  <xs:annotation>
    <xs:documentation>Integral of the time derivative term of the transport equation. Time-dependent. Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / ne
Namespace No namespace
Annotations
 
Electron density [m^-3]; (source term in [m^-3]).Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#corefield_value coreprof_xsd.tmp#corefield_ddrho coreprof_xsd.tmp#corefield_d2drho2 coreprof_xsd.tmp#corefield_ddt coreprof_xsd.tmp#corefield_source coreprof_xsd.tmp#corefield_flag coreprof_xsd.tmp#corefield_boundary coreprof_xsd.tmp#corefield_source_term coreprof_xsd.tmp#corefield_transp_coef coreprof_xsd.tmp#corefield_flux coreprof_xsd.tmp#corefield_flux_dv_surf coreprof_xsd.tmp#corefield_time_deriv utilities_xsd.tmp#codeparam coreprof_xsd.tmp#corefield
Type corefield
Properties
content complex
Model
Children boundary, codeparam, d2drho2, ddrho, ddt, flag, flux, flux_dv_surf, source, source_term, time_deriv, transp_coef, value
Instance
 
<ne>
  <value>{1,1}</value>
  <ddrho>{1,1}</ddrho>
  <d2drho2>{1,1}</d2drho2>
  <ddt>{1,1}</ddt>
  <source>{1,1}</source>
  <flag>{1,1}</flag>
  <boundary>{1,1}</boundary>
  <source_term>{1,1}</source_term>
  <transp_coef>{1,1}</transp_coef>
  <flux>{1,1}</flux>
  <flux_dv_surf>{1,1}</flux_dv_surf>
  <time_deriv>{1,1}</time_deriv>
  <codeparam>{1,1}</codeparam>
</ne>
Source
 
<xs:element name="ne" type="corefield">
  <xs:annotation>
    <xs:documentation>Electron density [m^-3]; (source term in [m^-3]).Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / ni
Namespace No namespace
Annotations
 
Ion density [m^-3]; (source term in [m^-3]). Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#corefieldion_value coreprof_xsd.tmp#corefieldion_ddrho coreprof_xsd.tmp#corefieldion_d2drho2 coreprof_xsd.tmp#corefieldion_ddt coreprof_xsd.tmp#corefieldion_source coreprof_xsd.tmp#corefieldion_flag coreprof_xsd.tmp#corefieldion_boundary coreprof_xsd.tmp#corefieldion_source_term coreprof_xsd.tmp#corefieldion_transp_coef coreprof_xsd.tmp#corefieldion_flux coreprof_xsd.tmp#corefieldion_flux_dv_surf coreprof_xsd.tmp#corefieldion_time_deriv utilities_xsd.tmp#codeparam coreprof_xsd.tmp#corefieldion
Type corefieldion
Properties
content complex
Model
Children boundary, codeparam, d2drho2, ddrho, ddt, flag, flux, flux_dv_surf, source, source_term, time_deriv, transp_coef, value
Instance
 
<ni>
  <value>{1,1}</value>
  <ddrho>{1,1}</ddrho>
  <d2drho2>{1,1}</d2drho2>
  <ddt>{1,1}</ddt>
  <source>{1,1}</source>
  <flag>{1,1}</flag>
  <boundary>{1,1}</boundary>
  <source_term>{1,1}</source_term>
  <transp_coef>{1,1}</transp_coef>
  <flux>{1,1}</flux>
  <flux_dv_surf>{1,1}</flux_dv_surf>
  <time_deriv>{1,1}</time_deriv>
  <codeparam>{1,1}</codeparam>
</ni>
Source
 
<xs:element name="ni" type="corefieldion">
  <xs:annotation>
    <xs:documentation>Ion density [m^-3]; (source term in [m^-3]). Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / vtor
Namespace No namespace
Annotations
 
Toroidal velocity of the various ion species [m.s^-1]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#corefieldion_value coreprof_xsd.tmp#corefieldion_ddrho coreprof_xsd.tmp#corefieldion_d2drho2 coreprof_xsd.tmp#corefieldion_ddt coreprof_xsd.tmp#corefieldion_source coreprof_xsd.tmp#corefieldion_flag coreprof_xsd.tmp#corefieldion_boundary coreprof_xsd.tmp#corefieldion_source_term coreprof_xsd.tmp#corefieldion_transp_coef coreprof_xsd.tmp#corefieldion_flux coreprof_xsd.tmp#corefieldion_flux_dv_surf coreprof_xsd.tmp#corefieldion_time_deriv utilities_xsd.tmp#codeparam coreprof_xsd.tmp#corefieldion
Type corefieldion
Properties
content complex
Model
Children boundary, codeparam, d2drho2, ddrho, ddt, flag, flux, flux_dv_surf, source, source_term, time_deriv, transp_coef, value
Instance
 
<vtor>
  <value>{1,1}</value>
  <ddrho>{1,1}</ddrho>
  <d2drho2>{1,1}</d2drho2>
  <ddt>{1,1}</ddt>
  <source>{1,1}</source>
  <flag>{1,1}</flag>
  <boundary>{1,1}</boundary>
  <source_term>{1,1}</source_term>
  <transp_coef>{1,1}</transp_coef>
  <flux>{1,1}</flux>
  <flux_dv_surf>{1,1}</flux_dv_surf>
  <time_deriv>{1,1}</time_deriv>
  <codeparam>{1,1}</codeparam>
</vtor>
Source
 
<xs:element name="vtor" type="corefieldion">
  <xs:annotation>
    <xs:documentation>Toroidal velocity of the various ion species [m.s^-1]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d
Namespace No namespace
Annotations
 
Profiles derived from the fields solved in the transport equations, or from experiment.
Diagram
Diagram coreprof_xsd.tmp#coreprof_coreprof_profiles1d_pe coreprof_xsd.tmp#coreprof_coreprof_profiles1d_dpedt coreprof_xsd.tmp#coreprof_coreprof_profiles1d_pi coreprof_xsd.tmp#coreprof_coreprof_profiles1d_pi_tot coreprof_xsd.tmp#coreprof_coreprof_profiles1d_dpi_totdt coreprof_xsd.tmp#coreprof_coreprof_profiles1d_pr_th coreprof_xsd.tmp#coreprof_coreprof_profiles1d_pr_perp coreprof_xsd.tmp#coreprof_coreprof_profiles1d_pr_parallel coreprof_xsd.tmp#coreprof_coreprof_profiles1d_jtot coreprof_xsd.tmp#coreprof_coreprof_profiles1d_jni coreprof_xsd.tmp#coreprof_coreprof_profiles1d_jphi coreprof_xsd.tmp#coreprof_coreprof_profiles1d_joh coreprof_xsd.tmp#coreprof_coreprof_profiles1d_vloop coreprof_xsd.tmp#coreprof_coreprof_profiles1d_sigmapar coreprof_xsd.tmp#coreprof_coreprof_profiles1d_qoh coreprof_xsd.tmp#coreprof_coreprof_profiles1d_qei coreprof_xsd.tmp#coreprof_coreprof_profiles1d_eparallel coreprof_xsd.tmp#coreprof_coreprof_profiles1d_e_b coreprof_xsd.tmp#coreprof_coreprof_profiles1d_q coreprof_xsd.tmp#coreprof_coreprof_profiles1d_shear coreprof_xsd.tmp#coreprof_coreprof_profiles1d_ns coreprof_xsd.tmp#coreprof_coreprof_profiles1d_mtor coreprof_xsd.tmp#coreprof_coreprof_profiles1d_wtor coreprof_xsd.tmp#coreprof_coreprof_profiles1d_vpol coreprof_xsd.tmp#coreprof_coreprof_profiles1d_zeff coreprof_xsd.tmp#coreprof_coreprof_profiles1d_bpol coreprof_xsd.tmp#coreprof_coreprof_profiles1d_dvprimedt
Properties
content complex
Model
Children bpol, dpedt, dpi_totdt, dvprimedt, e_b, eparallel, jni, joh, jphi, jtot, mtor, ns, pe, pi, pi_tot, pr_parallel, pr_perp, pr_th, q, qei, qoh, shear, sigmapar, vloop, vpol, wtor, zeff
Instance
 
<profiles1d>
  <pe>{1,1}</pe>
  <dpedt>{1,1}</dpedt>
  <pi>{1,1}</pi>
  <pi_tot>{1,1}</pi_tot>
  <dpi_totdt>{1,1}</dpi_totdt>
  <pr_th>{1,1}</pr_th>
  <pr_perp>{1,1}</pr_perp>
  <pr_parallel>{1,1}</pr_parallel>
  <jtot>{1,1}</jtot>
  <jni>{1,1}</jni>
  <jphi>{1,1}</jphi>
  <joh>{1,1}</joh>
  <vloop>{1,1}</vloop>
  <sigmapar>{1,1}</sigmapar>
  <qoh>{1,1}</qoh>
  <qei>{1,1}</qei>
  <eparallel>{1,1}</eparallel>
  <e_b>{1,1}</e_b>
  <q>{1,1}</q>
  <shear>{1,1}</shear>
  <ns>{1,1}</ns>
  <mtor>{1,1}</mtor>
  <wtor>{1,1}</wtor>
  <vpol>{1,1}</vpol>
  <zeff>{1,1}</zeff>
  <bpol>{1,1}</bpol>
  <dvprimedt>{1,1}</dvprimedt>
</profiles1d>
Source
 
<xs:element name="profiles1d">
  <xs:annotation>
    <xs:documentation>Profiles derived from the fields solved in the transport equations, or from experiment.</xs:documentation>
  </xs:annotation>
  <xs:complexType>
    <xs:sequence>
      <xs:element name="pe" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Electron pressure [Pa]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="dpedt" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Time derivative of the electron pressure [Pa/s]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="pi" type="coreprofion">
        <xs:annotation>
          <xs:documentation>Ion pressure [Pa]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="pi_tot" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Total ion pressure (sum of the species) [Pa]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="dpi_totdt" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Time derivative of the total ion pressure [Pa/s]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="pr_th" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Thermal pressure (electrons+ions) [Pa]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="pr_perp" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Total perpendicular pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="pr_parallel" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Total parallel pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="jtot" type="coreprofile">
        <xs:annotation>
          <xs:documentation>total parallel current density = average(jtot.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="jni" type="coreprofile">
        <xs:annotation>
          <xs:documentation>non-inductive parallel current density = average(jni.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="jphi" type="coreprofile">
        <xs:annotation>
          <xs:documentation>total toroidal current density = average(jphi/R) / average(1/R) [A/m^2]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="joh" type="coreprofile">
        <xs:annotation>
          <xs:documentation>ohmic parallel current density = average(joh.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="vloop" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Toroidal loop voltage [V]. Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="sigmapar" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Parallel conductivity [ohm^-1.m^-1]. Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="qoh" type="sourceel">
        <xs:annotation>
          <xs:documentation>ohmic heating [W/m^3]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="qei" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Collisional heat transfer from electrons to ions (equipartition term) [W/m^3]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="eparallel" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Parallel electric field = average(E.B) / B0, where B0 = coreprof/toroid_field/b0 [V.m^-1]. Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="e_b" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Average(E.B) [V.T.m^-1]. Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="q" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Safety factor profile; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="shear" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Magnetic shear profile; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="ns" type="coreprofion">
        <xs:annotation>
          <xs:documentation>Density of fast ions, for the various ion species [m^-3]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="mtor" type="coreprofion">
        <xs:annotation>
          <xs:documentation>Toroidal momentum of the various ion species [UNITS?]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="wtor" type="coreprofion">
        <xs:annotation>
          <xs:documentation>Angular toroidal rotation frequency of the various ion species [s^-1]; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="vpol" type="coreprofion">
        <xs:annotation>
          <xs:documentation>Neoclassical poloidal rotation of each ion species [m/s]. Time-dependent.</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="zeff" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Effective charge profile; Time-dependent;</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="bpol" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Average poloidal magnetic field, defined as sqrt(ave(grad rho^2/R^2)).dpsi/drho [T]. Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
      <xs:element name="dvprimedt" type="coreprofile">
        <xs:annotation>
          <xs:documentation>Time derivative of the radial derivative of the volume enclosed in the flux surface, i.e. d/dt(dV/drho_tor) [m^2.s^-1]; Time-dependent.</xs:documentation>
        </xs:annotation>
      </xs:element>
    </xs:sequence>
  </xs:complexType>
</xs:element>
Element coreprof / profiles1d / pe
Namespace No namespace
Annotations
 
Electron pressure [Pa]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<pe>
  <value>{1,1}</value>
  <source>{1,1}</source>
</pe>
Source
 
<xs:element name="pe" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Electron pressure [Pa]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / dpedt
Namespace No namespace
Annotations
 
Time derivative of the electron pressure [Pa/s]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<dpedt>
  <value>{1,1}</value>
  <source>{1,1}</source>
</dpedt>
Source
 
<xs:element name="dpedt" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Time derivative of the electron pressure [Pa/s]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / pi
Namespace No namespace
Annotations
 
Ion pressure [Pa]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofion_value coreprof_xsd.tmp#coreprofion_source coreprof_xsd.tmp#coreprofion
Type coreprofion
Properties
content complex
Model
Children source, value
Instance
 
<pi>
  <value>{1,1}</value>
  <source>{1,1}</source>
</pi>
Source
 
<xs:element name="pi" type="coreprofion">
  <xs:annotation>
    <xs:documentation>Ion pressure [Pa]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprofion / value
Namespace No namespace
Annotations
 
Signal value; Time-dependent; Matrix (nrho,nion)
Diagram
Diagram utilities_xsd.tmp#matflt_type
Type matflt_type
Properties
content simple
default [[0.0,0.0],[0.0,0.0]]
Source
 
<xs:element name="value" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
  <xs:annotation>
    <xs:documentation>Signal value; Time-dependent; Matrix (nrho,nion)</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprofion / source
Namespace No namespace
Annotations
 
Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)
Diagram
Diagram utilities_xsd.tmp#vecstring_type
Type vecstring_type
Properties
content simple
Source
 
<xs:element name="source" type="vecstring_type">
  <xs:annotation>
    <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / pi_tot
Namespace No namespace
Annotations
 
Total ion pressure (sum of the species) [Pa]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<pi_tot>
  <value>{1,1}</value>
  <source>{1,1}</source>
</pi_tot>
Source
 
<xs:element name="pi_tot" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Total ion pressure (sum of the species) [Pa]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / dpi_totdt
Namespace No namespace
Annotations
 
Time derivative of the total ion pressure [Pa/s]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<dpi_totdt>
  <value>{1,1}</value>
  <source>{1,1}</source>
</dpi_totdt>
Source
 
<xs:element name="dpi_totdt" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Time derivative of the total ion pressure [Pa/s]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / pr_th
Namespace No namespace
Annotations
 
Thermal pressure (electrons+ions) [Pa]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<pr_th>
  <value>{1,1}</value>
  <source>{1,1}</source>
</pr_th>
Source
 
<xs:element name="pr_th" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Thermal pressure (electrons+ions) [Pa]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / pr_perp
Namespace No namespace
Annotations
 
Total perpendicular pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<pr_perp>
  <value>{1,1}</value>
  <source>{1,1}</source>
</pr_perp>
Source
 
<xs:element name="pr_perp" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Total perpendicular pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / pr_parallel
Namespace No namespace
Annotations
 
Total parallel pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<pr_parallel>
  <value>{1,1}</value>
  <source>{1,1}</source>
</pr_parallel>
Source
 
<xs:element name="pr_parallel" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Total parallel pressure (electrons+ions, thermal+non-thermal) [Pa]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / jtot
Namespace No namespace
Annotations
 
total parallel current density = average(jtot.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<jtot>
  <value>{1,1}</value>
  <source>{1,1}</source>
</jtot>
Source
 
<xs:element name="jtot" type="coreprofile">
  <xs:annotation>
    <xs:documentation>total parallel current density = average(jtot.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / jni
Namespace No namespace
Annotations
 
non-inductive parallel current density = average(jni.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<jni>
  <value>{1,1}</value>
  <source>{1,1}</source>
</jni>
Source
 
<xs:element name="jni" type="coreprofile">
  <xs:annotation>
    <xs:documentation>non-inductive parallel current density = average(jni.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / jphi
Namespace No namespace
Annotations
 
total toroidal current density = average(jphi/R) / average(1/R) [A/m^2]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<jphi>
  <value>{1,1}</value>
  <source>{1,1}</source>
</jphi>
Source
 
<xs:element name="jphi" type="coreprofile">
  <xs:annotation>
    <xs:documentation>total toroidal current density = average(jphi/R) / average(1/R) [A/m^2]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / joh
Namespace No namespace
Annotations
 
ohmic parallel current density = average(joh.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<joh>
  <value>{1,1}</value>
  <source>{1,1}</source>
</joh>
Source
 
<xs:element name="joh" type="coreprofile">
  <xs:annotation>
    <xs:documentation>ohmic parallel current density = average(joh.B) / B0, where B0 = coreprof/toroid_field/b0 [A/m^2]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / vloop
Namespace No namespace
Annotations
 
Toroidal loop voltage [V]. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<vloop>
  <value>{1,1}</value>
  <source>{1,1}</source>
</vloop>
Source
 
<xs:element name="vloop" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Toroidal loop voltage [V]. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / sigmapar
Namespace No namespace
Annotations
 
Parallel conductivity [ohm^-1.m^-1]. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<sigmapar>
  <value>{1,1}</value>
  <source>{1,1}</source>
</sigmapar>
Source
 
<xs:element name="sigmapar" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Parallel conductivity [ohm^-1.m^-1]. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / qoh
Namespace No namespace
Annotations
 
ohmic heating [W/m^3]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#sourceel_value coreprof_xsd.tmp#sourceel_integral coreprof_xsd.tmp#sourceel_source coreprof_xsd.tmp#sourceel
Type sourceel
Properties
content complex
Model
Children integral, source, value
Instance
 
<qoh>
  <value>{1,1}</value>
  <integral>{1,1}</integral>
  <source>{1,1}</source>
</qoh>
Source
 
<xs:element name="qoh" type="sourceel">
  <xs:annotation>
    <xs:documentation>ohmic heating [W/m^3]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / qei
Namespace No namespace
Annotations
 
Collisional heat transfer from electrons to ions (equipartition term) [W/m^3]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<qei>
  <value>{1,1}</value>
  <source>{1,1}</source>
</qei>
Source
 
<xs:element name="qei" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Collisional heat transfer from electrons to ions (equipartition term) [W/m^3]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / eparallel
Namespace No namespace
Annotations
 
Parallel electric field = average(E.B) / B0, where B0 = coreprof/toroid_field/b0 [V.m^-1]. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<eparallel>
  <value>{1,1}</value>
  <source>{1,1}</source>
</eparallel>
Source
 
<xs:element name="eparallel" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Parallel electric field = average(E.B) / B0, where B0 = coreprof/toroid_field/b0 [V.m^-1]. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / e_b
Namespace No namespace
Annotations
 
Average(E.B) [V.T.m^-1]. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<e_b>
  <value>{1,1}</value>
  <source>{1,1}</source>
</e_b>
Source
 
<xs:element name="e_b" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Average(E.B) [V.T.m^-1]. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / q
Namespace No namespace
Annotations
 
Safety factor profile; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<q>
  <value>{1,1}</value>
  <source>{1,1}</source>
</q>
Source
 
<xs:element name="q" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Safety factor profile; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / shear
Namespace No namespace
Annotations
 
Magnetic shear profile; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<shear>
  <value>{1,1}</value>
  <source>{1,1}</source>
</shear>
Source
 
<xs:element name="shear" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Magnetic shear profile; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / ns
Namespace No namespace
Annotations
 
Density of fast ions, for the various ion species [m^-3]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofion_value coreprof_xsd.tmp#coreprofion_source coreprof_xsd.tmp#coreprofion
Type coreprofion
Properties
content complex
Model
Children source, value
Instance
 
<ns>
  <value>{1,1}</value>
  <source>{1,1}</source>
</ns>
Source
 
<xs:element name="ns" type="coreprofion">
  <xs:annotation>
    <xs:documentation>Density of fast ions, for the various ion species [m^-3]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / mtor
Namespace No namespace
Annotations
 
Toroidal momentum of the various ion species [UNITS?]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofion_value coreprof_xsd.tmp#coreprofion_source coreprof_xsd.tmp#coreprofion
Type coreprofion
Properties
content complex
Model
Children source, value
Instance
 
<mtor>
  <value>{1,1}</value>
  <source>{1,1}</source>
</mtor>
Source
 
<xs:element name="mtor" type="coreprofion">
  <xs:annotation>
    <xs:documentation>Toroidal momentum of the various ion species [UNITS?]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / wtor
Namespace No namespace
Annotations
 
Angular toroidal rotation frequency of the various ion species [s^-1]; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofion_value coreprof_xsd.tmp#coreprofion_source coreprof_xsd.tmp#coreprofion
Type coreprofion
Properties
content complex
Model
Children source, value
Instance
 
<wtor>
  <value>{1,1}</value>
  <source>{1,1}</source>
</wtor>
Source
 
<xs:element name="wtor" type="coreprofion">
  <xs:annotation>
    <xs:documentation>Angular toroidal rotation frequency of the various ion species [s^-1]; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / vpol
Namespace No namespace
Annotations
 
Neoclassical poloidal rotation of each ion species [m/s]. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprofion_value coreprof_xsd.tmp#coreprofion_source coreprof_xsd.tmp#coreprofion
Type coreprofion
Properties
content complex
Model
Children source, value
Instance
 
<vpol>
  <value>{1,1}</value>
  <source>{1,1}</source>
</vpol>
Source
 
<xs:element name="vpol" type="coreprofion">
  <xs:annotation>
    <xs:documentation>Neoclassical poloidal rotation of each ion species [m/s]. Time-dependent.</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / zeff
Namespace No namespace
Annotations
 
Effective charge profile; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<zeff>
  <value>{1,1}</value>
  <source>{1,1}</source>
</zeff>
Source
 
<xs:element name="zeff" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Effective charge profile; Time-dependent;</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / bpol
Namespace No namespace
Annotations
 
Average poloidal magnetic field, defined as sqrt(ave(grad rho^2/R^2)).dpsi/drho [T]. Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<bpol>
  <value>{1,1}</value>
  <source>{1,1}</source>
</bpol>
Source
 
<xs:element name="bpol" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Average poloidal magnetic field, defined as sqrt(ave(grad rho^2/R^2)).dpsi/drho [T]. Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / profiles1d / dvprimedt
Namespace No namespace
Annotations
 
Time derivative of the radial derivative of the volume enclosed in the flux surface, i.e. d/dt(dV/drho_tor) [m^2.s^-1]; Time-dependent.
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source coreprof_xsd.tmp#coreprofile
Type coreprofile
Properties
content complex
Model
Children source, value
Instance
 
<dvprimedt>
  <value>{1,1}</value>
  <source>{1,1}</source>
</dvprimedt>
Source
 
<xs:element name="dvprimedt" type="coreprofile">
  <xs:annotation>
    <xs:documentation>Time derivative of the radial derivative of the volume enclosed in the flux surface, i.e. d/dt(dV/drho_tor) [m^2.s^-1]; Time-dependent.</xs:documentation>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam
Namespace No namespace
Annotations
 
Various global quantities calculated from the 1D profiles. Time-dependent
Diagram
Diagram coreprof_xsd.tmp#coreprof_coreprof_globalparam_current_tot coreprof_xsd.tmp#coreprof_coreprof_globalparam_current_bnd coreprof_xsd.tmp#coreprof_coreprof_globalparam_current_ni coreprof_xsd.tmp#coreprof_coreprof_globalparam_vloop coreprof_xsd.tmp#coreprof_coreprof_globalparam_li coreprof_xsd.tmp#coreprof_coreprof_globalparam_beta_tor coreprof_xsd.tmp#coreprof_coreprof_globalparam_beta_normal coreprof_xsd.tmp#coreprof_coreprof_globalparam_beta_pol coreprof_xsd.tmp#coreprof_coreprof_globalparam_w_dia coreprof_xsd.tmp#coreprof_coreprof_globalparam_geom_axis
Properties
content complex
Model
Children beta_normal, beta_pol, beta_tor, current_bnd, current_ni, current_tot, geom_axis, li, vloop, w_dia
Instance
 
<globalparam>
  <current_tot>{1,1}</current_tot>
  <current_bnd>{1,1}</current_bnd>
  <current_ni>{1,1}</current_ni>
  <vloop>{1,1}</vloop>
  <li>{1,1}</li>
  <beta_tor>{1,1}</beta_tor>
  <beta_normal>{1,1}</beta_normal>
  <beta_pol>{1,1}</beta_pol>
  <w_dia>{1,1}</w_dia>
  <geom_axis>{1,1}</geom_axis>
</globalparam>
Source
 
<xs:element name="globalparam">
  <xs:annotation>
    <xs:documentation>Various global quantities calculated from the 1D profiles. Time-dependent</xs:documentation>
  </xs:annotation>
  <xs:complexType>
    <xs:sequence>
      <xs:element name="current_tot" type="xs:float">
        <xs:annotation>
          <xs:documentation>Total plasma current [A]; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="current_bnd" type="xs:float">
        <xs:annotation>
          <xs:documentation>Plasma current inside transport solver boundary rho_tor_bnd [A]; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="current_ni" type="xs:float">
        <xs:annotation>
          <xs:documentation>Total non-inductive parallel current [A]; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="vloop" type="xs:float">
        <xs:annotation>
          <xs:documentation>Toroidal loop voltage [V]; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="li" type="xs:float">
        <xs:annotation>
          <xs:documentation>Internal inductance; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="beta_tor" type="xs:float" default="0.0">
        <xs:annotation>
          <xs:documentation>toroidal beta; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="beta_normal" type="xs:float" default="0.0">
        <xs:annotation>
          <xs:documentation>normalised beta; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="beta_pol" type="xs:float" default="0.0">
        <xs:annotation>
          <xs:documentation>poloidal beta; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="w_dia" type="xs:float" default="0.0">
        <xs:annotation>
          <xs:documentation>Plasma energy content = 3/2 * int(p,dV) with p being the total pressure (pr_th + pr_perp). Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
      <xs:element name="geom_axis" type="rz0D">
        <xs:annotation>
          <xs:documentation>RZ position of the geometric axis (defined as (Rmin+Rmax) / 2 and (Zmin+Zmax) / 2 of the boundary) [m]; Time-dependent; Scalar</xs:documentation>
          <xs:appinfo>experimental</xs:appinfo>
        </xs:annotation>
      </xs:element>
    </xs:sequence>
  </xs:complexType>
</xs:element>
Element coreprof / globalparam / current_tot
Namespace No namespace
Annotations
 
Total plasma current [A]; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="current_tot" type="xs:float">
  <xs:annotation>
    <xs:documentation>Total plasma current [A]; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / current_bnd
Namespace No namespace
Annotations
 
Plasma current inside transport solver boundary rho_tor_bnd [A]; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="current_bnd" type="xs:float">
  <xs:annotation>
    <xs:documentation>Plasma current inside transport solver boundary rho_tor_bnd [A]; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / current_ni
Namespace No namespace
Annotations
 
Total non-inductive parallel current [A]; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="current_ni" type="xs:float">
  <xs:annotation>
    <xs:documentation>Total non-inductive parallel current [A]; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / vloop
Namespace No namespace
Annotations
 
Toroidal loop voltage [V]; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="vloop" type="xs:float">
  <xs:annotation>
    <xs:documentation>Toroidal loop voltage [V]; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / li
Namespace No namespace
Annotations
 
Internal inductance; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
Source
 
<xs:element name="li" type="xs:float">
  <xs:annotation>
    <xs:documentation>Internal inductance; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / beta_tor
Namespace No namespace
Annotations
 
toroidal beta; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
default 0.0
Source
 
<xs:element name="beta_tor" type="xs:float" default="0.0">
  <xs:annotation>
    <xs:documentation>toroidal beta; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / beta_normal
Namespace No namespace
Annotations
 
normalised beta; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
default 0.0
Source
 
<xs:element name="beta_normal" type="xs:float" default="0.0">
  <xs:annotation>
    <xs:documentation>normalised beta; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / beta_pol
Namespace No namespace
Annotations
 
poloidal beta; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
default 0.0
Source
 
<xs:element name="beta_pol" type="xs:float" default="0.0">
  <xs:annotation>
    <xs:documentation>poloidal beta; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / w_dia
Namespace No namespace
Annotations
 
Plasma energy content = 3/2 * int(p,dV) with p being the total pressure (pr_th + pr_perp). Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
default 0.0
Source
 
<xs:element name="w_dia" type="xs:float" default="0.0">
  <xs:annotation>
    <xs:documentation>Plasma energy content = 3/2 * int(p,dV) with p being the total pressure (pr_th + pr_perp). Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / globalparam / geom_axis
Namespace No namespace
Annotations
 
RZ position of the geometric axis (defined as (Rmin+Rmax) / 2 and (Zmin+Zmax) / 2 of the boundary) [m]; Time-dependent; Scalar
Diagram
Diagram utilities_xsd.tmp#rz0D_r utilities_xsd.tmp#rz0D_z utilities_xsd.tmp#rz0D
Type rz0D
Properties
content complex
Model
r , z
Children r, z
Instance
 
<geom_axis>
  <r>{1,1}</r>
  <z>{1,1}</z>
</geom_axis>
Source
 
<xs:element name="geom_axis" type="rz0D">
  <xs:annotation>
    <xs:documentation>RZ position of the geometric axis (defined as (Rmin+Rmax) / 2 and (Zmin+Zmax) / 2 of the boundary) [m]; Time-dependent; Scalar</xs:documentation>
    <xs:appinfo>experimental</xs:appinfo>
  </xs:annotation>
</xs:element>
Element coreprof / time
Namespace No namespace
Annotations
 
Time [s]; Time-dependent; Scalar
Diagram
Diagram
Type xs:float
Properties
content simple
default 0.0
Source
 
<xs:element name="time" type="xs:float" default="0.0">
  <xs:annotation>
    <xs:documentation>Time [s]; Time-dependent; Scalar</xs:documentation>
  </xs:annotation>
</xs:element>
Complex Type coreprofile
Namespace No namespace
Annotations
 
Structure for core plasma profile; Time-dependent
Diagram
Diagram coreprof_xsd.tmp#coreprofile_value coreprof_xsd.tmp#coreprofile_source
Used by
Model
Children source, value
Source
 
<xs:complexType name="coreprofile">
  <xs:annotation>
    <xs:documentation>Structure for core plasma profile; Time-dependent</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="value" type="vecflt_type" default="[0.0,0.0]">
      <xs:annotation>
        <xs:documentation>Signal value; Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="xs:string">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
Complex Type corefield
Namespace No namespace
Annotations
 
Structure for a main field of core transport equations; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#corefield_value coreprof_xsd.tmp#corefield_ddrho coreprof_xsd.tmp#corefield_d2drho2 coreprof_xsd.tmp#corefield_ddt coreprof_xsd.tmp#corefield_source coreprof_xsd.tmp#corefield_flag coreprof_xsd.tmp#corefield_boundary coreprof_xsd.tmp#corefield_source_term coreprof_xsd.tmp#corefield_transp_coef coreprof_xsd.tmp#corefield_flux coreprof_xsd.tmp#corefield_flux_dv_surf coreprof_xsd.tmp#corefield_time_deriv utilities_xsd.tmp#codeparam
Used by
Model
Children boundary, codeparam, d2drho2, ddrho, ddt, flag, flux, flux_dv_surf, source, source_term, time_deriv, transp_coef, value
Source
 
<xs:complexType name="corefield">
  <xs:annotation>
    <xs:documentation>Structure for a main field of core transport equations; Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="value" type="vecflt_type" default="[0.0,0.0]">
      <xs:annotation>
        <xs:documentation>Signal value; Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="ddrho" type="vecflt_type" default="[0.0,0.0]">
      <xs:annotation>
        <xs:documentation>Radial derivative (dvalue/drho_tor) [signal_value_unit.m^-1]; Time-dependent; Vector (nrho)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="d2drho2" type="vecflt_type" default="[0.0,0.0]">
      <xs:annotation>
        <xs:documentation>Second order radial derivative (d2value/drho_tor^2) [signal_value_unit.m^-2]; Time-dependent; Vector (nrho)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="ddt" type="vecflt_type" default="[0.0,0.0]">
      <xs:annotation>
        <xs:documentation>Time derivative (dvalue/dtime) [signal_value_unit.s^-1]; Time-dependent; Vector (nrho)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="xs:string">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="flag" type="xs:integer" default="0">
      <xs:annotation>
        <xs:documentation>Flag describing how the profile has been processed : 0-not calculated 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Scalar</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="boundary" type="boundaryel">
      <xs:annotation>
        <xs:documentation>Boundary condition for the transport equation. Time-dependent.</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="source_term" type="sourceel">
      <xs:annotation>
        <xs:documentation>Total source term for the transport equation. Time-dependent.</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="transp_coef" type="coretransel">
      <xs:annotation>
        <xs:documentation>Total transport coefficients. Time-dependent.</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="flux" type="fluxel">
      <xs:annotation>
        <xs:documentation>Fluxes of the quantity, two definitions. Time-dependent.</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="flux_dv_surf" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Net flux through the magnetic surface, i.e. integral over the magnetic surface area of flux_dv. Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="time_deriv" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Integral of the time derivative term of the transport equation. Time-dependent. Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element ref="codeparam"/>
  </xs:sequence>
</xs:complexType>
Complex Type sourceel
Namespace No namespace
Annotations
 
Structure for the total source term for the transport equation (electrons). Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#sourceel_value coreprof_xsd.tmp#sourceel_integral coreprof_xsd.tmp#sourceel_source
Used by
Model
Children integral, source, value
Source
 
<xs:complexType name="sourceel">
  <xs:annotation>
    <xs:documentation>Structure for the total source term for the transport equation (electrons). Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="value" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Value of the source term; Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="integral" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Integral from 0 to rho of the source term. Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="xs:string">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
Complex Type coretransel
Namespace No namespace
Annotations
 
Structure for the transport coefficients for the transport equation (electrons). Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coretransel_diff coreprof_xsd.tmp#coretransel_vconv coreprof_xsd.tmp#coretransel_source
Used by
Model
Children diff, source, vconv
Source
 
<xs:complexType name="coretransel">
  <xs:annotation>
    <xs:documentation>Structure for the transport coefficients for the transport equation (electrons). Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="diff" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Diffusion coefficient [m^2.s^-1]. Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="vconv" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Convection coefficient [m.s^-1]. Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="xs:string">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); String</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
Complex Type fluxel
Namespace No namespace
Annotations
 
Structure for the fluxes of a field of the core transport equations (electrons); Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#fluxel_flux_dv coreprof_xsd.tmp#fluxel_flux_interp
Used by
Element corefield/flux
Model
Children flux_dv, flux_interp
Source
 
<xs:complexType name="fluxel">
  <xs:annotation>
    <xs:documentation>Structure for the fluxes of a field of the core transport equations (electrons); Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="flux_dv" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Flux of the field calculated from the transport coefficients. Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="flux_interp" type="vecflt_type">
      <xs:annotation>
        <xs:documentation>Interpretative flux deduced from measured data, the integral of the source term, and the time derivative of the field. Time-dependent; Vector (nrho)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
Complex Type corefieldion
Namespace No namespace
Annotations
 
Structure for an ion field of core transport equations; Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#corefieldion_value coreprof_xsd.tmp#corefieldion_ddrho coreprof_xsd.tmp#corefieldion_d2drho2 coreprof_xsd.tmp#corefieldion_ddt coreprof_xsd.tmp#corefieldion_source coreprof_xsd.tmp#corefieldion_flag coreprof_xsd.tmp#corefieldion_boundary coreprof_xsd.tmp#corefieldion_source_term coreprof_xsd.tmp#corefieldion_transp_coef coreprof_xsd.tmp#corefieldion_flux coreprof_xsd.tmp#corefieldion_flux_dv_surf coreprof_xsd.tmp#corefieldion_time_deriv utilities_xsd.tmp#codeparam
Used by
Model
Children boundary, codeparam, d2drho2, ddrho, ddt, flag, flux, flux_dv_surf, source, source_term, time_deriv, transp_coef, value
Source
 
<xs:complexType name="corefieldion">
  <xs:annotation>
    <xs:documentation>Structure for an ion field of core transport equations; Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="value" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
      <xs:annotation>
        <xs:documentation>Signal value; Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="ddrho" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Radial derivative (dvalue/drho_tor) [signal_value_unit.m^-1]; Time-dependent; Matrix (nrho,nion)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="d2drho2" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Second order radial derivative (d2value/drho_tor^2) [signal_value_unit.m^-2]; Time-dependent; Matrix (nrho,nion)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="ddt" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Time derivative (dvalue/dtime) [signal_value_unit.s^-1]; Time-dependent; Matrix (nrho,nion)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="vecstring_type">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="flag" type="vecint_type" default="[0,0]">
      <xs:annotation>
        <xs:documentation>Flag describing how the profile has been processed : 0-not calculated 1-interpretative; 2-calculated by the transport solver; 3-calculated by a separate code : in that case only, description of the code provided in codeparam at the same level; 4-used value from the previous time step; Time-dependent; Vector(nion)</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="boundary" type="boundaryion">
      <xs:annotation>
        <xs:documentation>Boundary condition for the transport equation</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="source_term" type="sourceion">
      <xs:annotation>
        <xs:documentation>Total source term for the transport equation. Time-dependent.</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="transp_coef" type="coretransion">
      <xs:annotation>
        <xs:documentation>Total transport coefficients. Time-dependent.</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="flux" type="fluxion">
      <xs:annotation>
        <xs:documentation>Fluxes of the quantity, two definitions. Time-dependent.</xs:documentation>
      </xs:annotation>
    </xs:element>
    <xs:element name="flux_dv_surf" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Net flux through the magnetic surface, i.e. integral over the magnetic surface area of flux_dv. Time-dependent; Matrix(nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="time_deriv" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Integral of the time derivative term of the transport equation. Time-dependent. Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element ref="codeparam"/>
  </xs:sequence>
</xs:complexType>
Complex Type sourceion
Namespace No namespace
Annotations
 
Structure for the total source term for the transport equation (ions). Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#sourceion_value coreprof_xsd.tmp#sourceion_integral coreprof_xsd.tmp#sourceion_source
Used by
Model
Children integral, source, value
Source
 
<xs:complexType name="sourceion">
  <xs:annotation>
    <xs:documentation>Structure for the total source term for the transport equation (ions). Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="value" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Value of the source term; Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="integral" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Integral from 0 to rho of the source term. Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="vecstring_type">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
Complex Type coretransion
Namespace No namespace
Annotations
 
Structure for the transport coefficients for the transport equation (ions). Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#coretransion_diff coreprof_xsd.tmp#coretransion_vconv coreprof_xsd.tmp#coretransion_source
Used by
Model
Children diff, source, vconv
Source
 
<xs:complexType name="coretransion">
  <xs:annotation>
    <xs:documentation>Structure for the transport coefficients for the transport equation (ions). Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="diff" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Diffusion coefficient [m^2.s^-1]. Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="vconv" type="matflt_type">
      <xs:annotation>
        <xs:documentation>Convection coefficient [m.s^-1]. Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="vecstring_type">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
Complex Type fluxion
Namespace No namespace
Annotations
 
Structure for the fluxes of a field of the core transport equations (ions); Time-dependent;
Diagram
Diagram coreprof_xsd.tmp#fluxion_flux_dv coreprof_xsd.tmp#fluxion_flux_interp
Used by
Model
Children flux_dv, flux_interp
Source
 
<xs:complexType name="fluxion">
  <xs:annotation>
    <xs:documentation>Structure for the fluxes of a field of the core transport equations (ions); Time-dependent;</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="flux_dv" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
      <xs:annotation>
        <xs:documentation>Flux of the field calculated from the transport coefficients. Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="flux_interp" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
      <xs:annotation>
        <xs:documentation>Interpretative flux deduced from measured data, the integral of the source term, and the time derivative of the field. Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
Complex Type coreprofion
Namespace No namespace
Annotations
 
Structure for core plasma ion profile; Time-dependent
Diagram
Diagram coreprof_xsd.tmp#coreprofion_value coreprof_xsd.tmp#coreprofion_source
Used by
Model
Children source, value
Source
 
<xs:complexType name="coreprofion">
  <xs:annotation>
    <xs:documentation>Structure for core plasma ion profile; Time-dependent</xs:documentation>
  </xs:annotation>
  <xs:sequence>
    <xs:element name="value" type="matflt_type" default="[[0.0,0.0],[0.0,0.0]]">
      <xs:annotation>
        <xs:documentation>Signal value; Time-dependent; Matrix (nrho,nion)</xs:documentation>
        <xs:appinfo>experimental</xs:appinfo>
      </xs:annotation>
    </xs:element>
    <xs:element name="source" type="vecstring_type">
      <xs:annotation>
        <xs:documentation>Source of the profile (any comment describing the origin of the profile : code, path to diagnostic signals, massaging, ...); Array of strings (nion)</xs:documentation>
      </xs:annotation>
    </xs:element>
  </xs:sequence>
</xs:complexType>
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