<table><tr><td>[[image:Cube-icon.png | link=Getting_Started_with_EM.Cube]] [[image:cad-ico.png | link= Microstrip Wizard Building_Geometrical_Constructions_in_CubeCAD]] [[image:fdtd-ico.png | link=EM.Tempo]] [[image:prop-ico.png | link=EM.Terrano]] [[image:static-ico.png | link=EM.Ferma]] [[image:planar-ico.png | link=EM.Picasso]] [[image:metal-ico.png | link=EM.Libera]] [[image:po-ico.png | link=EM.Illumina]]</td><tr></table>[[Image:Back_icon.png|30px]] '''[[EM.Cube | Back to EM.Cube Main Page]]'''<br />
ICON: [[File:us1p icon.png]] == Air Bridge Wizard ==
MENUICON: '''Tools → Transmission Line Wizards → Microstrip Line'''[[File:bridge icon.png]]
MODULE(S)MENU: [[EM.Tempo]], [[EM.Picasso]], [[EM.Ferma]] '''Tools → Component Wizards → Air Bridge'''
FUNCTIONMODULE(S): Creates the parameterized geometry of a microstrip line segment of a specified characteristic impedance on a conductor-backed single-layer dielectric substrate in the project workspace[[EM.Tempo]], [[EM.Picasso]]
NOTES, SPECIAL CASES OR EXCEPTIONSFUNCTION: In [[EM.Tempo]] and [[EM.Picasso]], this wizard creates a one-port open-ended microstrip transmission line segment. In [[EM.Ferma]], it sets up a 2D solution plane for quasi-static analysis of Creates the microstrip transmission line. The width parameterized geometry of an air bridge in the microstrip line is determined based on project workspace typically used to equalize the specified characteristic impedance. It may be replaced by grounds of a numeric value instead. CPW line
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], this wizard creates a free-standing air bridge only. In [[EM.Picasso]], it also creates and sets the substrate parameters.
PYTHON COMMAND(S):
emag_microstrip_tempoPYTHON COMMAND(h,er,z0,strip_len,feed_len,sub_len,sub_wid,draw_substrateS):
emag_microstrip_picassoemag_air_bridge_tempo(hbridge_len,erpost_height,z0,strip_len,feed_lenpost_rad)
emag_microstrip_fermaemag_air_bridge_picasso(h,er,z0bridge_len,box_multiplierpost_height,draw_substratepost_rad)
MICROSTRIP AIR BRIDGE WIZARD PARAMETERS
{| border="0"
|-
| meters
| 0.0015
| substrate height (thickness) (only in [[EM.Picasso]])
|-
! scope="row" | er
| -
| 2.2
| substrate relative permittivity (only in [[EM.Picasso]])
|-
! scope="row" | z0| real numeric| Ohms | 50 | characteristic impedance |-! scope="row" | strip_lenbridge_len
| real numeric
| meters
| - | length of the line segment 0.01 (only in [[EM.Tempo]] & ) or 0.015 ([[EM.Picasso]]) | length of the bridge
|-
! scope="row" | feed_lenpost_height
| real numeric
| meters
| - | length of feed line 0.004 (only in [[EM.Tempo]])or 0.002 ([[EM.Picasso]]) | height of the two posts
|-
! scope="row" | sub_lenpost_rad
| real numeric
| meters
| - | length of substrate (only in [[EM0.Tempo]] & [[EM.Ferma]])001 |-! scope="row" | sub_wid| real numeric| meters | - | width radius of substrate (only in [[EM.Tempo]] & [[EM.Ferma]])|-! scope="row" | draw_substrate| Boolean| -| True | Adds substrate & ground planethe two posts
|}
<tr>
<td>
[[Image:wiz_us_tempowiz_bridge_tempo.png|thumb|500px360px|Default microstrip line segment air bridge in EM.Tempo.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_us_picassowiz_bridge_picasso.png|thumb|500px360px|Default microstrip line segment air bridge in EM.Picasso.]]</td></tr><tr><td>[[Image:wiz_us_ferma.png|thumb|500px|Default 2D microstrip line in EM.Ferma.]]
</td>
</tr>
</table>
== Two-Port Microstrip Basic Link Wizard ==
ICON: [[File:us2p Basic link icon.png]]
MENU: '''Tools → Transmission Line Propagation Wizards → Two-Port Microstrip LineBasic Link'''
MODULE(S): [[EM.Tempo]], [[EM.PicassoTerrano]]
FUNCTION: Creates the parameterized geometry of a two-port microstrip line segment standard transmitter and a grid of a specified characteristic impedance on a conductor-backed single-layer dielectric substrate standard receivers in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In This wizard creates a basic communication link infrastructure in [[EM.TempoTerrano]], the two ports are placed at the two edges of the substrate's project workspace. The width link consists of the microstrip lines is determined based on the specified characteristic impedance. It may be replaced by a numeric value insteadhalf-wave dipole transmitter and a rectangular grid of isotropic receivers with parameterized heights and spacing. Â Â PYTHON COMMAND(S):
emag_microstrip_2port_tempo(h,er,z0,strip_len,sub_len,sub_wid,draw_substrate)
emag_microstrip_2port_picassoPYTHON COMMAND(h,erS): emag_basic_link(scene_size,z0tx_h,strip_lenrx_h,feed_lenrx_spacing)
TWO-PORT MICROSTRIP BASIC LINK WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | hscene_size
| real numeric
| meters meter| 0.0015 250| substrate height (thickness) total dimensions of the square receiver grid
|-
! scope="row" | er tx_h
| real numeric
| - meter| 2.2 10| substrate relative permittivity height of the default transmitter
|-
! scope="row" | z0rx_h
| real numeric
| Ohms meter| 50 1.5| characteristic impedance height of the default receivers
|-
! scope="row" | strip_lenrx_spacing
| real numeric
| meters meter| - 5| length of spacing among the line segment |-! scope="row" | feed_len| real numeric| meters | - | length of feed line (only in [[EM.Picasso]])|-! scope="row" | sub_len| real numeric| meters | - | length of substrate (only in [[EM.Tempo]])|-! scope="row" | sub_wid| real numeric| meters | - | width of substrate (only in [[EM.Tempo]])|-! scope="row" | draw_substrate| Boolean| -| True | Adds substrate & ground planeindividual receivers
|}
<tr>
<td>
[[Image:wiz_us2p_tempowiz_basic_link.png|thumb|500px|Default two-port microstrip line segment basic link scene in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_us2p_picasso.png|thumb|500px|Default two-port microstrip line segment in EM.PicassoTerrano.]]
</td>
</tr>
</table>
== Coplanar Waveguide (CPW) Basic Radar Wizard ==
ICON: [[File:cpw1p Basic link icon.png]]
MENU: '''Tools → Transmission Line Propagation Wizards → Coplanar WaveguideBasic Radar'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]], [[EM.FermaTerrano]]
FUNCTION: Creates the a parameterized geometry of monostatic radar scene with a collocated point transmitter and receiver and a coplanar waveguide segment on point scatterer at a single-layer dielectric substrate in the project workspacecertain range
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EMThe user can determine the locations of both the radar (transmitter and receiver) and the target.Tempo]] The user can also import a radiation pattern for the radar antenna and [[EMrotate the antenna arbitrarily.Picasso]]By default, this wizard creates a one20dB Y-port openpolarized pyramidal horn antenna pointing along the X-ended CPW transmission line segmentaxis is assumed. In [[EM.Ferma]], it sets up The target is assumed to be a 2D solution plane for quasi-static analysis PEC sphere of 1m radius. The user can change the CPW transmission lineattributes of the target scatterer group from within the wizard including its material composition, or alternatively import either polarimetric scattering matrix or RCS data.
PYTHON COMMAND(S):Â emag_cpw_tempoemag_basic_radar(htarget_label,erx0,strip_widy0,slot_widz0,strip_lentarget_type,sub_lenrad,sub_widepsilon,draw_substrate)Â emag_cpw_picasso(hsigma,erscat_file1,wscat_file2,santenna_label,lsx1,lf)Â emag_cpw_ferma(hy1,erz1,spattern_file,wrot_x,box_multiplierrot_y,draw_substraterot_z)
CPW BASIC RADAR WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | hRadiator Center X
| real numeric
| meters meter| 0.0015 | substrate height (thickness) X-coordinate of the radar antenna center
|-
! scope="row" | er Radiator Center Y
| real numeric
| - meter| 2.2 0| substrate relative permittivity Y-coordinate of the radar antenna center
|-
! scope="row" | strip_widRadiator Center Z
| real numeric
| meters meter| 0.002 5| width Z-coordinate of the radar antenna center strip
|-
! scope="row" | slot_widX-Rotation Angle
| real numeric
| meters degree| 0.002 | width rotation angle of the slots radar antenna about X-axis
|-
! scope="row" | strip_lenY-Rotation Angle
| real numeric
| meters degree| - 0| length rotation angle of the line segment (only in [[EM.Tempo]] & [[EM.Picasso]]) radar antenna about Y-axis
|-
! scope="row" | sub_lenZ-Rotation Angle
| real numeric
| meters degree| - 0| length rotation angle of substrate (only in [[EM.Tempo]] & [[EM.Ferma]])the radar antenna about Z-axis
|-
! scope="row" | sub_widTarget Center X
| real numeric
| meters meter| - 100| width X-coordinate of substrate (only in [[EM.Tempo]] & [[EM.Ferma]])the radar antenna center
|-
! scope="row" | draw_substrateTarget Center Y| Booleanreal numeric| meter| 0| Y-coordinate of the radar antenna center|-! scope="row" | Target Center Z| real numeric| meter| 5| Z-coordinate of the radar antenna center|-! scope="row" | Target Radius | real numeric| meter| True 1| Adds substrate & ground planeradius of the spherical target
|}
<tr>
<td>
[[Image:wiz_cpw_tempowiz_basic_link.png|thumb|500px|Default coplanar waveguide segment basic link scene in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_cpw_picasso.png|thumb|500px|Default coplanar waveguide segment in EM.Picasso.]]</td></tr><tr><td>[[Image:wiz_cpw_ferma.png|thumb|500px|Default 2D coplanar waveguide in EM.FermaTerrano.]]
</td>
</tr>
</table>
== Two-Port Coplanar Waveguide (CPW) Coaxial Connector Wizard ==
ICON: [[File:cpw2p sma icon.png]]
MENU: '''Tools → Transmission Line Component Wizards → Two-Port Coplanar WaveguideCoaxial Connector'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of a two-port coplanar waveguide segment on coaxial connector of a single-layer dielectric substrate specified characteristic impedance in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], The radius of the two ports are placed at outer conductor is determined based on the two edges of the substratespecified characteristic impedance. It may be replaced by a numeric value instead.
PYTHON COMMAND(S):emag_sma_connector(er,z0,inner_rad,flange_size,feed_len,ext_len)
emag_cpw_2port_tempo(h,er,strip_wid,slot_wid,strip_len,sub_len,sub_wid,draw_substrate)
emag_cpw_2port_picasso(h,er,w,s,ls,lf)Â Â TWO-PORT CPW COAXIAL CONNECTOR WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Default Value
! scope="col"| Notes
|-
! scope="row" | h
| real numeric
| meters
| 0.0015
| substrate height (thickness)
|-
! scope="row" | er
| -
| 2.2
| substrate relative permittivity of the dielectric core
|-
! scope="row" | strip_widz0
| real numeric
| meters Ohms | 0.002 50 | width of the center strip characteristic impedance
|-
! scope="row" | slot_widinner_rad
| real numeric
| meters
| 0.002 001 | width radius of the slots inner conductor
|-
! scope="row" | strip_lenflange_size
| real numeric
| meters
| - 0.01 | length lateral size of the line segment flange
|-
! scope="row" | sub_lenfeed_len
| real numeric
| meters
| - 0.03| length of substrate (only in [[EM.Tempo]])the coaxial line segment
|-
! scope="row" | sub_widext_len
| real numeric
| meters
| - 0.0025 | width length of substrate (only in [[EM.Tempo]])|-! scope="row" | draw_substrate| Boolean| -| True | Adds substrate & ground planethe inner conductor extension beyond the flange
|}
<tr>
<td>
[[Image:wiz_cpw2p_tempowiz_sma.png|thumb|500px|Default two-port coplanar waveguide segment coaxial connector in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_cpw2p_picasso.png|thumb|500px|Default two-port coplanar waveguide segment in EM.Picasso.]]
</td>
</tr>
MODULE(S): [[EM.Tempo]], [[EM.Ferma]]
FUNCTION: Creates the parameterized geometry of a coaxial line segment of a specified characteristic impedance with a dielectric core in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], this wizard creates a one-port open-ended coaxial transmission line segmentof a specified characteristic impedance. In [[EM.Ferma]], it sets up a 2D solution plane for quasi-static analysis of the coaxial transmission line. The radius of the with given inner and outer conductor is determined based on the specified characteristic impedance. It may be replaced by a numeric value insteadradii.
PYTHON COMMAND(S):
emag_coax_2port_tempoemag_coax_tempo(er,z0,r_innerinner_rad,len)
emag_coax_ferma(er,z0inner_rad,r_innerouter_rad)
[[EM.Tempo|EM.TEMPO]] COAXIAL WIZARD PARAMETERS
{| border="0"
|-
| real numeric
| meters
| - 0.1| length of the line segment (only in [[EM.Tempo]])
|}
<table><tr><td>[[Image:wiz_coax_tempo.png|thumb|500px|Default coaxial line segment in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_coax_ferma.pngFerma|thumb|500px|Default 2D coaxial line in EM.Ferma.FERMA]]</td></tr></table> == Two-Port Coaxial Wizard == ICON: [[File:coax2p icon.png]]  MENU: '''Tools → Transmission Line Wizards → Two-Port Coaxial Line''' MODULE(S): [[EM.Tempo]]  FUNCTION: Creates the parameterized geometry of a two-port coaxial line segment of a specified characteristic impedance with a dielectric core in the project workspace NOTES, SPECIAL CASES OR EXCEPTIONS: The radius of the outer conductor is determined based on the specified characteristic impedance. It may be replaced by a numeric value instead.   PYTHON COMMAND(S): emag_coax_2port_tempo(er,z0,r_inner,len)  TWO-PORT COAXIAL WIZARD PARAMETERS
{| border="0"
|-
| 2.2
| relative permittivity of the dielectric core
|-
! scope="row" | z0
| real numeric
| Ohms
| 50
| characteristic impedance
|-
! scope="row" | r_inner
| radius of inner conductor
|-
! scope="row" | lenr_outer
| real numeric
| meters
| - 0.002 | length radius of the line segment (only in [[EM.Tempo]]) outer conductor
|}
<tr>
<td>
[[Image:wiz_coax2p_tempowiz_coax_tempo.png|thumb|500px|Default two-port coaxial line segment in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_coax_ferma.png|thumb|500px|Default 2D coaxial line in EM.Ferma.]]
</td>
</tr>
</table>
== Rectangular Waveguide Coil Wizard ==
ICON: [[File:wg1p coil icon.png]]
MENU: '''Tools → Transmission Line Component Wizards → Rectangular WaveguideToroidal Coil'''
MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Tempo]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a rectangular waveguide segment slightly above the cutoff at the center frequency of toroidal helix coil with a generalized super-quadratic cross section in the projectworkspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a one-port open-ended rectangular waveguide segment in In [[EM.TempoFerma]]. The width of , this wizard turns the waveguide is set slightly larger than half its cutoff wavelength for the dominant TE10 mode. The height is set equal to half its width. Both the width and height can be replaced by arbitrary numeric valuestoroidal coil into a wire current source.
PYTHON COMMAND(S): emag_rect_waveguide(wg_len,port_offset)
emag_coil(major_rad,minor_rad_h,minor_rad_v,turns,order,step)
WAVEGUIDE emag_coil_ferma(major_rad,minor_rad_h,minor_rad_v,turns,order,step,current,wire_rad)Â Â COIL WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | wg_lenmajor_rad
| real numeric
| meters project units| 10 | radius of the circular axis |-! scope="row" | minor_rad_h| real numeric| project units| 2 | horizontal radius of the super-quadratic cross section |-! scope="row" | minor_rad_v| real numeric| project units| 2 | vertical radius of the super-quadratic cross section |-! scope="row" | turns| integer numeric
| -
| length 50 | total number of the waveguide segment turns
|-
! scope="row" | port_offsetorder| integer numeric| - | 2 | order of the super-quadratic curve, N = 2 produces an ellipse|-! scope="row" | step
| real numeric
| meters
| -
| distance between port plane and 0.005 | increment in the first open end interval [0, 2*pi] - determines the resolution of the curve |-! scope="row" | current| real numeric| Amp | 1| total current flowing through the coil (only in [[EM.Ferma]])|-! scope="row" | wire_rad| real numeric| project units | 0.0005 | radius of the waveguide coil wire (only in [[EM.Ferma]])
|}
<tr>
<td>
[[Image:wiz_wg_tempowiz_coil_cad.png|thumb|500px|Default rectangular waveguide segment with a shorted end wall toroidal coil in CubeCAD.]]</td></tr><tr><td>[[Image:wiz_coil_ferma.png|thumb|500px|Default toroidal coil in EM.TempoFerma.]]
</td>
</tr>
</table>
== Two-Port Rectangular Coplanar Waveguide (CPW) Wizard ==
ICON: [[File:wg2p cpw1p icon.png]]
MENU: '''Tools → Transmission Line Wizards → Two-Port Rectangular Coplanar Waveguide'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]], [[EM.Ferma]]
FUNCTION: Creates the parameterized geometry of a two-port rectangular coplanar waveguide segment slightly above the cutoff at the center frequency of on a single-layer dielectric substrate in the projectworkspace
NOTES, SPECIAL CASES OR EXCEPTIONS: The width of the waveguide is set slightly larger than half its cutoff wavelength for the dominant TE10 modeIn [[EM. The height is set equal to half its widthTempo]] and [[EM. Both Picasso]], this wizard creates a one-port open-ended CPW transmission line segment. In [[EM.Ferma]], it sets up a 2D solution plane for quasi-static analysis of the width and height can be replaced by arbitrary numeric valuesCPW transmission line.
PYTHON COMMAND(S): emag_rect_waveguide_2port(wg_len,feed_len,port_offset)
emag_cpw_tempo(h,er,center_wid,slot_wid,center_len,sub_len,sub_wid,draw_substrate)
TWO-PORT WAVEGUIDE emag_cpw_picasso(h,er,center_wid,slot_wid,center_len)Â emag_cpw_ferma(h,er,strip_wid,slot_wid,box_multiplier,draw_substrate)Â Â [[EM.Tempo|EM.TEMPO]] CPW WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | wg_lenh| real numeric| meters | 0.0015 | substrate height (thickness) |-! scope="row" | er
| real numeric
| meters
| -
| length of the middle waveguide segment 2.2 | substrate relative permittivity
|-
! scope="row" | feed_lencenter_wid
| real numeric
| meters
| - 0.002 | length width of the feed waveguide segments center strip
|-
! scope="row" | port_offsetslot_wid
| real numeric
| meters
| - 0.002 | distance between port planes and the open ends width of the waveguide slots |-! scope="row" | center_len| real numeric| meters | 0.05 | length of center line segment |-! scope="row" | sub_len| real numeric| meters | 0.1| length of substrate |-! scope="row" | sub_wid| real numeric| meters | 0.05 | width of substrate |-! scope="row" | draw_substrate| Boolean| -| True | Adds substrate & ground plane
|}
<table><tr><td>[[Image:wiz_wg2p_tempoEM.pngPicasso|thumb|500px|Default two-port rectangular waveguide segment in EM.Tempo with the two open-end feed sections in the freeze state.PICASSO]]</td></tr></table> == Coaxial Connector Wizard == ICON: [[File:sma icon.png]]  MENU: '''Tools → Component Wizards → Coaxial Connector''' MODULE(S): [[EM.Tempo]]  FUNCTION: Creates the parameterized geometry of a coaxial connector of a specified characteristic impedance in the project workspace NOTES, SPECIAL CASES OR EXCEPTIONS: The radius of the outer conductor is determined based on the specified characteristic impedance. It may be replaced by a numeric value instead.   PYTHON COMMAND(S): emag_sma_connector(er,z0,inner_rad,flange_size,feed_len,ext_len)  COAXIAL CONNECTOR CPW WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Default Value
! scope="col"| Notes
|-
! scope="row" | h
| real numeric
| meters
| 0.0015
| substrate height (thickness)
|-
! scope="row" | er
| -
| 2.2
| substrate relative permittivity of the dielectric core
|-
! scope="row" | z0center_wid
| real numeric
| Ohms meters | 50 0.002 | characteristic impedance width of center strip
|-
! scope="row" | inner_radslot_wid
| real numeric
| meters
| 0.001 002 | radius width of inner conductor the slots
|-
! scope="row" | flange_sizecenter_len
| real numeric
| meters
| 0.01 05 | lateral size length of the flange center line segment
|-
! scope="row" | feed_len
| real numeric
| meters
| 0.035 * center_len| length of the coaxial feed line segment |}Â [[EM.Ferma|EM.FERMA]] CPW WIZARD PARAMETERS{| border="0"
|-
| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | h| real numeric| meters | 0.0015 | substrate height (thickness) |-! scope="row" | er | real numeric| - | 2.2 | substrate relative permittivity |-! scope="row" | ext_lenstrip_wid
| real numeric
| meters
| 0.0025 002 | length width of the inner conductor extension beyond the flange center strip |-! scope="row" | slot_wid| real numeric| meters | 0.002 | width of the slots |-! scope="row" | box_multiplier| real numeric| - | 10 | ratio of substrate width to sum of widths of center strip and two slots |-! scope="row" | draw_substrate| Boolean| -| True | Adds substrate & ground plane
|}
<tr>
<td>
[[Image:wiz_smawiz_cpw_tempo.png|thumb|500px|Default coaxial connector coplanar waveguide segment in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_cpw_picasso.png|thumb|500px|Default coplanar waveguide segment in EM.Picasso.]]</td></tr><tr><td>[[Image:wiz_cpw_ferma.png|thumb|500px|Default 2D coplanar waveguide in EM.Ferma.]]
</td>
</tr>
</table>
== Air Bridge Cross Slot Antenna Wizard ==
ICON: [[File:bridge iconcross_icon.png]]
MENU: '''Tools → Component Antenna Wizards → Air BridgeCross Slot Antenna'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of an air bridge a cross slot antenna in the project workspace typically used to equalize the grounds of a CPW line
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], this the wizard creates a free-standing air bridge onlycross slot antenna on a dielectric substrate. In [[EM.Picasso]], it also the wizard creates and sets a cross slot antenna on a slot trace. The total length of each slot is set equal to a half the substrate parameterseffective wavelength, which can be changed. This wizard does not provide a default excitation source in either module.
PYTHON COMMAND(S):
emag_air_bridge_tempoemag_slot_tempo(bridge_lenh,post_heighter,post_radslot_wid,sub_size)
emag_air_bridge_picassoemag_slot_picasso(h,er,bridge_len,post_height,post_radslot_wid)
AIR BRIDGE CROSS SLOT ANTENNA WIZARD PARAMETERS
{| border="0"
|-
! scope="row" | h
| real numeric
| meters meter| 0.0015 | substrate height (thickness) (only in [[EM.Picasso]]height)
|-
! scope="row" | er
| real numeric
| -
| 2.2
| substrate relative permittivity (only in [[EM.Picasso]])
|-
! scope="row" | bridge_lenslot_wid
| real numeric
| meters meter| 0.01 ([[EM.Tempo]]) or 0.015 ([[EM.Picasso]]) 005| length width of the bridge slot
|-
! scope="row" | post_heightsub_size
| real numeric
| meters meter| 0.004 2| dimensions of the square substrate & ground (only in [[EM.Tempo]]) or 0.002 ([[EM.Picasso]]) | height of the two posts |-! scope="row" | post_rad| real numeric| meters | 0.001 | radius of the two posts
|}
<table>
<tr>
<td>
[[Image:wiz_bridge_tempowiz_cross_tempo.png|thumb|360px500px|Default air bridge cross slot antenna in EM.Tempo.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_bridge_picassowiz_cross_picasso.png|thumb|360px500px|Default air bridge cross slot antenna in EM.Picasso.]]
</td>
</tr>
</table>
== Solenoid Cross Slot Wizard ==
ICON: [[File:solenoid iconcross_icon.png]]
MENU: '''Tools → Component Antenna Wizards → SolenoidCross Slot'''
MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.TempoIllumina]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a solenoid with a generalized super-quadratic narrow cross section slot in the project workspacea ground plane
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Ferma]], this This wizard turns the solenoid into simply creates a cross slot in a wire current sourceground plane using Boolean subtraction.
PYTHON COMMAND(S): emag_cross_slot(slot_len,slot_wid,metal_size)
emag_solenoid(major_rad,minor_rad,height,turns,order,step)
emag_solenoid_ferma(major_rad,minor_rad,height,turns,order,step,current,wire_rad)Â Â SOLENOID LINEAR SLOT WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | major_radslot_len
| real numeric
| project units
| 2 100| major radius total length of the super-quadratic cross section each slot arm
|-
! scope="row" | minor_radslot_wid
| real numeric
| project units
| 2 10| minor radius total width of the super-quadratic cross section each slot arm
|-
! scope="row" | heightmetal_size
| real numeric
| project units | 10 200| total height dimensions of the solenoid square metal ground|} <table><tr><td>[[Image:wiz_cross_cad.png|thumb|500px|Default cross slot in CubeCAD.]]</td></tr></table> == Dipole Antenna Wizard == ICON: [[File:dipole icon.png]]  MENU: '''Tools → Antenna Wizards → Wire Dipole Antenna''' MODULE(S): [[EM.Tempo]], [[EM.Libera]]  FUNCTION: Creates the parameterized geometry of a dipole antenna in the project workspace NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], the dipole consists of two thin PEC cylinders fed by a lumped source on a short joining line. In [[EM.Libera]], the dipole is a thin wire.   PYTHON COMMAND(S):  emag_dipole_tempo(len_lambda,wire_rad_lambda) emag_dipole_libera(len_lambda,wire_rad_lambda)  DIPOLE WIZARD PARAMETERS{| border="0"
|-
! scope| valign="rowtop" | turns| integer numeric| - | 10 | total number of turns
|-
! scope{| class="rowwikitable" | order| integer numeric| - | 2 | order of the super-quadratic curve, N = 2 produces an ellipse
|-
! scope="rowcol" | stepParameter Name! scope="col"| real numericValue Type! scope="col"| - Units! scope="col"| 0.005 Default Value! scope="col"| increment in the interval [0, 2*pi] - determines the resolution of the curve Notes
|-
! scope="row" | currentlen_lambda
| real numeric
| Amp -| 1| total current flowing through the solenoid 0.5 (only in [[EM.FermaLibera]])or 0.47 (in [[EM.Tempo]])| length of dipole normalized to free-space wavelength
|-
! scope="row" | wire_radwire_rad_lambda
| real numeric
| project units -| 0.0005 002 | wire radius of the solenoid wire (only in [[EM.Ferma]])normalized to free-space wavelength
|}
<tr>
<td>
[[Image:wiz_solenoid_cadwiz_dipole_tempo.png|thumb|360px300px|Default solenoid cylindrical dipole antenna in CubeCADEM.Tempo.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_solenoid_fermawiz_dipole_libera.png|thumb|360px300px|Default solenoid thin wire dipole antenna in EM.FermaLibera.]]
</td>
</tr>
</table>
== Coil Dipole Array Wizard ==
ICON: [[File:coil dpl_array icon.png]]
MENU: '''Tools → Component Antenna Wizards → Toroidal CoilWire Dipole Array'''
MODULE(S): [[CubeCAD]], [[EM.Tempo]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a toroidal helix coil with a generalized super-quadratic cross section dipole antenna array in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EMThe dipole elements are all thin wires.Ferma]], this wizard turns the toroidal coil into a wire current source.
PYTHON COMMAND(S): emag_dipole_array(len_lambda,spacing_lambda,nx,ny,wire_rad_lambda)
emag_coil(major_rad,minor_rad_h,minor_rad_v,turns,order,step)
emag_coil_ferma(major_rad,minor_rad_h,minor_rad_v,turns,order,step,current,wire_rad)Â Â COIL DIPOLE ARRAY WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | major_radlen_lambda
| real numeric
| project units-| 10 0.5 | radius length of the circular axis dipole normalized to free-space wavelength
|-
! scope="row" | minor_rad_hspacing_lambda
| real numeric
| project units-| 2 0.5 | horizontal radius of the superelement spacing normalized to free-quadratic cross section space wavelength
|-
! scope="row" | minor_rad_v| real numeric| project units| 2 | vertical radius of the super-quadratic cross section |-! scope="row" | turnsnx
| integer numeric
| - | 50 5 | total number of turnselements along X
|-
! scope="row" | orderny
| integer numeric
| - | 2 1 | order number of the super-quadratic curve, N = 2 produces an ellipseelements along Y
|-
! scope="row" | stepwire_rad_lambda
| real numeric
| - | 0.005 002 | increment in the interval [0, 2*pi] wire radius normalized to free- determines the resolution of the curve |-! scope="row" | current| real numeric| Amp | 1| total current flowing through the coil (only in [[EM.Ferma]])|-! scope="row" | wire_rad| real numeric| project units | 0.0005 | radius of the coil wire (only in [[EM.Ferma]])space wavelength
|}
<tr>
<td>
[[Image:wiz_coil_cadwiz_dipole_array.png|thumb|500px|Default toroidal coil in CubeCAD.]]</td></tr><tr><td>[[Image:wiz_coil_ferma.png|thumb|500px|Default toroidal coil thin wire dipole array in EM.FermaLibera.]]
</td>
</tr>
MENU: '''Tools → Component Wizards → Conformal Coil'''
MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a cylindrical foil section in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], this wizard creates a conformal metallic patch on a cylindrical dielectric coating around a cylindrical metal core. In all other modules, it creates a free-standing sectoral sectorial cylindrical foil.
</table>
== Parabolic Reflector Hilly Terrain Wizard ==
ICON: [[File:dish iconhill_icon.png]]
MENU: '''Tools → Component Propagation Wizards → Parabolic ReflectorHilly Terrain'''
MODULE(S): [[CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.LiberaTerrano]]
FUNCTION: Creates the parameterized geometry of a parabolic reflector hilly terrain with a random rough surface in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a hilly terrain using a surface object generated with a Gaussian profile. The aperture diameter of the reflector surface is determined then roughened based on the focal and axial lengths of the primitive parabolaspecified statistics.
PYTHON COMMAND(S): emag_parabolic_reflectoremag_hill(focal_lenarea_size,axial_lenheight,radius,elevation,res,rms_height,correl_len)
PARABOLIC REFLECTOR HILLY TERRAIN WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | focal_lenarea_size
| real numeric
| project unitsmeter
| 50
| focal length dimensions of the primitive parabola square terrain surface
|-
! scope="row" | axial_lenheight
| real numeric
| project unitsmeter| 70 15| axial height of the hill|-! scope="row" | radius| real numeric| meter| 20| radius of the Gaussian surface profile|-! scope="row" | elevation| real numeric| meter| 1| base elevation of whole terrain surface |-! scope="row" | res| real numeric| meter| 5| resolution of terrain surface |-! scope="row" | rms_height| real numeric| meter| 1| RMS height of the random rough surface |-! scope="row" | correl_len| real numeric| meter| 5| correlation length of the primitive parabola random rough surface
|}
<tr>
<td>
[[Image:wiz_dish_tempowiz_hill.png|thumb|360px500px|Default parabolic reflector hilly terrain in EM.TempoTerrano.]]
</td>
</tr>
</table>
== Trihedral Reflector Horn Antenna Array Wizard ==
ICON: [[File:trihed iconhorn_array_icon.png]]
MENU: '''Tools → Component Antenna Wizards → Trihedral ReflectorHorn Antenna Array'''
MODULE(S): [[CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a Trihedral corner reflector pyramidal horn antenna array in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates an array of pyramidal horn antennas fed by rectangular waveguides with a TE10 modal excitation. The aperture diameter larger dimension of each feeding waveguide is set slightly larger than half its cutoff wavelength for the reflector dominant TE10 mode. The aspect ratio of each waveguide's cross section is determined 2:1. Its length is set to half the free-space wavelength. All of these dimensions can be replaced by arbitrary numeric values. The horn aperture dimensions and its overall length are calculated based on the focal and axial lengths specified antenna gain. All of the primitive parabolathese dimensions can be changed, too.
PYTHON COMMAND(S): emag_trihedral_reflectoremag_horn_array(sidegain_dB,nx,ny,spacing_x_lambda,spacing_y_lambda)
TRIHEDRAL REFLECTOR CROSS SLOT ANTENNA WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | sidegain_dB
| real numeric
| project units-| 10015| square wall dimensions gain of each individual horn element|-! scope="row" | nx| integer numeric| -| 2 | number of elements along X |-! scope="row" | ny| integer numeric| -| 2 | number of elements along Y |-! scope="row" | spacing_x_lambda| real numeric| -| 3| element spacing along X normalized to free-space wavelength|-! scope="row" | spacing_y_lambda| real numeric| -| 3| element spacing along Y normalized to free-space wavelength
|}
<tr>
<td>
[[Image:wiz_trihed_tempowiz_horn_array.png|thumb|360px500px|Default trihedral reflector horn antenna array in EM.Tempo.]]
</td>
</tr>
</table>
== Particle Cloud Horn Antenna Wizard ==
ICON: [[File:cloud iconhorn_icon.png]]
MENU: '''Tools → Component Antenna Wizards → Particle CloudHorn Antenna'''
MODULE(S): [[CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a random cloud of regular polygon particles contained pyramidal horn antenna in an ellipsoid regionthe project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a pyramidal horn antenna fed by a rectangular waveguide with a TE10 modal excitation. The aperture diameter larger dimension of the reflector feeding waveguide is determined set slightly larger than half its cutoff wavelength for the dominant TE10 mode. The aspect ratio of the waveguide's cross section is 2:1. Its length is set to half the free-space wavelength. All of these dimensions can be replaced by arbitrary numeric values. The horn aperture dimensions and its overall length are calculated based on the focal and axial lengths specified antenna gain. All of the primitive parabolathese dimensions can be changed, too.
PYTHON COMMAND(S): emag_horn(gain_dB)
emag_particle_cloud(n_sides,side_length,cont_radius_x,cont_radius_y,cont_radius_z,n_elements)
emag_particle_cloud_cad(n_sides,side_length,cont_radius_x,cont_radius_y,cont_radius_z,n_elements)HORN ANTENNA WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | gain_dB| real numeric| -| 15| gain of the horn antenna |}
<table>
<tr>
<td>
[[Image:wiz_horn.png|thumb|500px|Default horn antenna in EM.Tempo.]]
</td>
</tr>
</table>
PARTICLE CLOUD == Linear Slot Array Wizard == ICON: [[File:slot_array_icon.png]]  MENU: '''Tools → Antenna Wizards → Linear Slot Array''' MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]  FUNCTION: Creates the parameterized geometry of an array of narrow rectangular slots in a ground plane NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard simply creates an array of linear slots in a ground plane using Boolean subtraction.   PYTHON COMMAND(S): emag_linear_slot_array(slot_len,slot_wid,nx,ny,spacing_x,spacing_y)  LINEAR SLOT ARRAY WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | n_sidesslot_len| real numeric| project units| 100| length of the slot |-! scope="row" | slot_wid| real numeric| project units| 10| width of the slot |-! scope="row" | nx
| integer numeric
| -
| 42 | number of sides of the regular polygon particle elements along X
|-
! scope="row" | side_lengthny| integer numeric| -| 2 | number of elements along Y |-! scope="row" | spacing_x| real numeric| -| 150| element spacing along X|-! scope="row" | spacing_y| real numeric| -| 150| element spacing along Y|} <table><tr><td>[[Image:wiz_slot_array_cad.png|thumb|500px|Default linear slot array in CubeCAD.]]</td></tr></table> == Linear Slot Wizard == ICON: [[File:slot_icon.png]]  MENU: '''Tools → Antenna Wizards → Linear Slot''' MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]  FUNCTION: Creates the parameterized geometry of a narrow rectangular slot in a ground plane NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard simply creates a linear slot in a ground plane using Boolean subtraction.   PYTHON COMMAND(S): emag_linear_slot(slot_len,slot_wid,metal_size)  LINEAR SLOT WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | slot_len
| real numeric
| project units
| 2100| side length of the regular polygon particle slot
|-
! scope="row" | cont_radius_xslot_wid
| real numeric
| project units
| 20010| radius width of the ellipsoid container along X slot
|-
! scope="row" | cont_radius_ymetal_size
| real numeric
| project units
| 200
| radius dimensions of the ellipsoid container along Y square metal ground|} <table><tr><td>[[Image:wiz_slot_cad.png|thumb|500px|Default linear slot in CubeCAD.]]</td></tr></table> == Microstrip Wizard == ICON: [[File:us1p icon.png]]  MENU: '''Tools → Transmission Line Wizards → Microstrip Line''' MODULE(S): [[EM.Tempo]], [[EM.Picasso]], [[EM.Ferma]]  FUNCTION: Creates the parameterized geometry of a microstrip line segment on a conductor-backed single-layer dielectric substrate in the project workspace NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]] and [[EM.Picasso]], this wizard creates a one-port open-ended microstrip transmission line segment of a specified characteristic impedance. In [[EM.Ferma]], it sets up a 2D solution plane for quasi-static analysis of the microstrip transmission line with a given strip width.   PYTHON COMMAND(S): emag_microstrip_tempo(h,er,z0,cetner_len,sub_len,sub_wid,draw_substrate) emag_microstrip_picasso(h,er,z0,center_len,feed_len) emag_microstrip_ferma(h,er,strip_wid,box_multiplier,draw_substrate)  [[EM.Tempo|EM.TEMPO]] MICROSTRIP WIZARD PARAMETERS{| border="0"
|-
| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | cont_radius_zh
| real numeric
| project unitsmeters | 1000.0015 | radius of the ellipsoid container along Z substrate height (thickness)
|-
! scope="row" | n_elementser | integer real numeric| - | 2.2 | substrate relative permittivity |-! scope="row" | z0| real numeric| Ohms | 50 | characteristic impedance |-! scope="row" | center_len| real numeric| meters | 0.03| length of center line segment |-! scope="row" | sub_len| real numeric| meters | 0.1 | length of substrate |-! scope="row" | sub_wid| real numeric| meters | 0.05 | width of substrate |-! scope="row" | draw_substrate| Boolean
| -
| 100True | total number Adds substrate & ground plane|}Â [[EM.Picasso|EM.PICASSO]] MICROSTRIP WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | h| real numeric| meters | 0.0015 | substrate height (thickness) |-! scope="row" | er | real numeric| - | 2.2 | substrate relative permittivity |-! scope="row" | z0| real numeric| Ohms | 50 | characteristic impedance |-! scope="row" | center_len| real numeric| meters | 0.03| length of particles the line segment |-! scope="row" | feed_len| real numeric| meters | 0.5 * center_len | length of feed line segment|}Â [[EM.Ferma|EM.FERMA]] MICROSTRIP WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | h| real numeric| meters | 0.0015 | substrate height (thickness) |-! scope="row" | er | real numeric| - | 2.2 | substrate relative permittivity |-! scope="row" | strip_wid| real numeric| meters| 2| width of microstrip line |-! scope="row" | box_multiplier| real numeric| - | 10 | ratio of width of substrate to strip width |-! scope="row" | draw_substrate| Boolean| -| True | Adds substrate & ground plane
|}
<tr>
<td>
[[Image:wiz_cloud_tempowiz_us_tempo.png|thumb|500px|Default particle cloud microstrip line segment in EM.Tempo with the ellipsoid container .]]</td></tr><tr><td>[[Image:wiz_us_picasso.png|thumb|500px|Default microstrip line segment in the freeze stateEM.Picasso.]]</td></tr><tr><td>[[Image:wiz_us_ferma.png|thumb|500px|Default 2D microstrip line in EM.Ferma.]]
</td>
</tr>
</table>
== Sierpinski Microstrip-Fed Patch Wizard ==
ICON: [[File:sierpin iconus_patch_icon.png]]
MENU: '''Tools → Component Antenna Wizards → Sierpinski StripMicrostrip-Fed Patch Antenna'''
MODULE(S): [[CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Picasso]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a Sierpinski triangle fractal microstrip-fed rectangular patch antenna in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: A dialog The wizard asks you to enter values for the key size and number of fractal levelswhether you want a microstrip-fed patch antenna with a recessed feed or one with a direct microstrip line junction. The wizard creates In [[EM.Tempo]], the Sierpinski triangle as feed line is excited by a large set of smaller trianglesmicrostrip port. In [[EM.Picasso]], which cannot be modified using variables afterwardsthe feed line has a scattering wave port. You may want to group The total dimensions of the square patch are set of all equal to 0.5 times the triangles as a single composite objecteffective dielectric wavelength, which can be changed.
PYTHON COMMAND(S): emag_sierpinski(key_size,levels)
emag_microstrip_fed_patch_tempo(is_recess,h,er,z0,feed_len,recess_dep,recess_wid,sub_len,sub_wid)
SIERPINSKI emag_microstrip_fed_patch_picasso(is_recess,h,er,z0,feed_len,recess_dep,recess_wid)Â Â MICROSTRIP-FED PATCH WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | key_sizeis_recess| Boolean| -| True| Creates a recessed feed vs. a direct microstrip line junction to the patch |-! scope="row" | h
| real numeric
| project unitsmeter| 1000.0015| side length of the largest substrate thickness (outermostheight) triangle
|-
! scope="row" | levelser| integer real numeric
| -
| 32.2 | number substrate relative permittivity |-! scope="row" | z0| real numeric| Ohms| 50 | characteristic impedance of fractal levels the microstrip feed |-! scope="row" | feed_len| real numeric| meter| 0.075| length of the microstrip feed line |-! scope="row" | recess_dep| real numeric| meter| 0.015| depth of the feed recess |-! scope="row" | recess_wid| real numeric| meter| 0.005| width of the recess gaps |-! scope="row" | sub_len| real numeric| meter| 0.3| substrate dimension along X (only in [[EM.Tempo]])|-! scope="row" | sub_wid| real numeric| meter| 0.3| substrate dimension along Y (only in [[EM.Tempo]])
|}
<tr>
<td>
[[Image:wiz_sierpin_tempowiz_us_patch_tempo.png|thumb|500px|Default Sierpinski triangle strip microstrip-fed patch antenna in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_us_patch_picasso.png|thumb|500px|Default microstrip-fed patch antenna in EM.Picasso.]]</td></tr><tr><td>[[Image:wiz_us_patch_recess_tempo.png|thumb|500px|Default microstrip-fed patch antenna with a recessed feed in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_us_patch_recess_picasso.png|thumb|500px|Default microstrip-fed patch antenna with a recessed feed in EM.Picasso.]]
</td>
</tr>
</table>
== Dipole Antenna Mobile Path Wizard ==
ICON: [[File:dipole Mobile Path icon.png]]
MENU: '''Tools → Antenna Propagation Wizards → Wire Dipole AntennaMobile Path'''
MODULE(S): [[EM.Tempo]], [[EM.LiberaTerrano]]
FUNCTION: Creates the parameterized geometry of a dipole antenna mobile path of transmitters or receivers in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], the dipole consists This wizard creates either a set of two thin PEC cylinders fed by transmitters or a lumped source on set of receivers along a short joining linespecified path. In [[EMThe path can be specified in one of three different ways: (a) using an existing "virtual" nodal curve, i.Libera]]e. a polyline or a NURBS curve, whose nodes define the dipole is base locations, (b) using an existing "virtual" line object by specifying the number of base location points, and (c) using an existing spatial Cartesian data file, which specifies the coordinates of the base location points. The Mobile Path Wizard provides a thin wirelist of all the nodal curves or line objects that have been defined as virtual objects in the project workspace.
PYTHON COMMAND(S):
emag_dipole_tempoemag_mobile_path_nodal(len_lambdalabel,wire_rad_lambdanodal_curve,TxRx=0)
emag_dipole_liberaemag_mobile_path_line(len_lambdalabel,wire_rad_lambdaline_object,num_points=10,TxRx=0)
emag_mobile_path_file(label,file_name,TxRx=0)
DIPOLE MOBILE PATH WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | len_lambdanodal_curve| real numericstring
| -
| 0.5 (in [[EM.Libera]]) or 0.47 (in [[EM.Tempo]])-| length name of dipole normalized to free-space wavelength the nodal curve object
|-
! scope="row" | wire_rad_lambdaTxRx| real numericinteger
| -
| 0.002 | wire radius normalized to freeenter 0 for transmitters and 1 for receivers|-space wavelength ! scope="row" | line_object| string| -| -| name of line object|-! scope="row" | file_name| string| -| -| the name of spatial Cartesian data file that must have a ".CAR" file extension
|}
<tr>
<td>
[[Image:wiz_dipole_tempoWiz mobile1.png|thumb|300px480px|Default cylindrical dipole antenna in EM.TempoThe mobile path wizard dialog.]]
</td>
</tr>
</table>
<table>
<tr>
<td>
[[Image:wiz_dipole_liberaWiz mobile2.png|thumb|300px640px|Default thin wire dipole antenna in EM.LiberaA set of transmitters created from a virtual polyline object using the mobile path wizard.]]
</td>
</tr>
</table>
== Dipole Array Mountainous Terrain Wizard ==
ICON: [[File:dpl_array iconmountain_icon.png]]
MENU: '''Tools → Antenna Propagation Wizards → Wire Dipole ArrayMountainous Terrain'''
MODULE(S): [[EM.LiberaTerrano]]
FUNCTION: Creates the parameterized geometry of a dipole antenna array mountainous terrain with a random rough surface in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a mountainous terrain using a surface object generated with a bi-cubic spline profile. The dipole elements are all thin wiressurface is then roughened based on the specified statistics. This wizard can be used to create either a mountain range with three peaks or a single-peak mountain.
PYTHON COMMAND(S): emag_dipole_arrayemag_mountain(len_lambdais_range,spacing_lambdaarea_size,nxheight,nyheight_diff,wire_rad_lambdaradius,spacing,elevation,res,rms_height,correl_len)
DIPOLE ARRAY MOUNTAINOUS TERRAIN WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | len_lambdais_range| real numericBoolean
| -
| 0.5 True | length of dipole normalized to free-space wavelength if true, creates a mountain range with three peaks, otherwise, creates a single peak
|-
! scope="row" | spacing_lambdaarea_size
| real numeric
| meter| 200| dimensions of the square terrain surface| -! scope="row" | 0.5 height| element real numeric| meter| 200| height of the mountain|-! scope="row" | height_diff| real numeric| meter| 40| difference between the heights of the center peak and the two lateral peaks in the case of a mountain range|-! scope="row" | radius| real numeric| meter| 50| radius of the bi-cubic spline surface profile|-! scope="row" | spacing normalized to free| real numeric| meter| 70| spacing between the center peak and the two lateral peaks in the case of a mountain range|-space wavelength ! scope="row" | elevation| real numeric| meter| 1| base elevation of whole terrain surface |-! scope="row" | res| real numeric| meter| 5| resolution of terrain surface |-! scope="row" | rms_height| real numeric| meter| 1| RMS height of the random rough surface |-! scope="row" | correl_len| real numeric| meter| 5| correlation length of the random rough surface |} <table><tr><td>[[Image:wiz_mountain.png|thumb|500px|Default mountainous terrain in EM.Terrano.]]</td></tr></table> == Office Building Wizard == ICON: [[File:office_icon.png]]  MENU: '''Tools → Propagation Wizards → Office Building''' MODULE(S): [[EM.Terrano]] FUNCTION: Creates a multi-story office building with penetrable walls in the project workspace NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates an office building with multiple floor and rows of rooms separated by hallways.   PYTHON COMMAND(S): emag_office_building(room_len,room_wid,room_height,hallway_width,nx,ny,nz,er,sig,wall_thickness)  OFFICE BUILDING WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | room_len| real numeric| meter| 6| length of individual rooms|-! scope="row" | room_wid| real numeric| meter| 8| width of individual rooms|-! scope="row" | room_height| real numeric| meter| 4| height of individual rooms|-! scope="row" | hallway_wid| real numeric| meter| 2| width of interior hallways
|-
! scope="row" | nx
| -
| 5
| number of elements rooms along X
|-
! scope="row" | ny
| integer numeric
| -
| 1 3 | number of elements rooms along Y
|-
! scope="row" | wire_rad_lambdanz| integer numeric| -| 2 | number of floors (number of rooms along Z)|-! scope="row" | er
| real numeric
| -
| 04.002 4| relative permittivity of building walls| wire radius normalized to free-space wavelength ! scope="row" | sig| real numeric| S/m| 1e-3| conductivity of building walls|-! scope="row" | wall_thickness| real numeric| meter| 0.25| thickness of the individual walls
|}
<tr>
<td>
[[Image:wiz_dipole_arraywiz_office.png|thumb|500px|Default thin wire dipole array office building scene in EM.LiberaTerrano with its rooms in the freeze state.]]
</td>
</tr>
</table>
== Yagi-Uda Array Parabolic Reflector Wizard ==
ICON: [[File:yagi dish icon.png]]
MENU: '''Tools → Antenna Component Wizards → Yagi-Uda Dipole ArrayParabolic Reflector'''
MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a Yagi-Uda wire dipole array parabolic reflector in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: The dipole elements are all thin wiresaperture diameter of the reflector is determined based on the focal and axial lengths of the primitive parabola.
PYTHON COMMAND(S): emag_yagiemag_parabolic_reflector(excite_len_lambdafocal_len,reflect_len_lambda,reflect_spacing_lambda,direct_len_lambda,direct_spacing_lambda,n_direct,wire_rad_lambdaaxial_len)
YAGI PARABOLIC REFLECTOR WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | excite_len_lambdafocal_len
| real numeric
| -project units| 0.47 50| focal length of exciter dipole normalized to free-space wavelength the primitive parabola
|-
! scope="row" | reflect_len_lambdaaxial_len
| real numeric
| project units
| 70
| axial length of the primitive parabola
|}
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<table>
<tr>
<td>
[[Image:wiz_dish_tempo.png|thumb|360px|Default parabolic reflector in EM.Tempo.]]
</td>
</tr>
</table>
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== Particle Cloud Wizard ==
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ICON: [[File:cloud icon.png]]
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MENU: '''Tools → Component Wizards → Particle Cloud'''
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MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]
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FUNCTION: Creates the parameterized geometry of a random cloud of regular polygon particles contained in an ellipsoid region
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NOTES, SPECIAL CASES OR EXCEPTIONS: The aperture diameter of the reflector is determined based on the focal and axial lengths of the primitive parabola.
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PYTHON COMMAND(S):
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emag_particle_cloud(n_sides,side_length,cont_radius_x,cont_radius_y,cont_radius_z,n_elements)
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emag_particle_cloud_cad(n_sides,side_length,cont_radius_x,cont_radius_y,cont_radius_z,n_elements)
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PARTICLE CLOUD WIZARD PARAMETERS
{| border="0"
|-
| valign="top"|
|-
{| class="wikitable"
|-
! scope="col"| Parameter Name
! scope="col"| Value Type
! scope="col"| Units
! scope="col"| Default Value
! scope="col"| Notes
|-
! scope="row" | n_sides
| integer numeric
| -
| 0.5 4| length number of reflector dipole normalized to free-space wavelength sides of the regular polygon particle
|-
! scope="row" | reflect_spacingn_lambdaside_length
| real numeric
| -project units| 0.25 2| spacing between reflector and exciter dipoles normalized to free-space wavelength side length of the regular polygon particle
|-
! scope="row" | direct_len_lambdacont_radius_x
| real numeric
| -project units| 0.406 200| length radius of director dipoles normalized to free-space wavelength the ellipsoid container along X
|-
! scope="row" | direct_spacing_lambdacont_radius_y
| real numeric
| -project units| 0.34 200| spacing between director dipoles normalized to free-space wavelength radius of the ellipsoid container along Y
|-
! scope="row" | n_directcont_radius_z| real numeric| project units| 100| radius of the ellipsoid container along Z |-! scope="row" | n_elements
| integer numeric
| -
| 5 100| total number of director dipole elements along X |-! scope="row" | wire_rad_lambda| real numeric| -| 0.003 | wire radius normalized to free-space wavelength particles
|}
<tr>
<td>
[[Image:wiz_yagiwiz_cloud_tempo.png|thumb|500px|Default thin wire Yagi-Uda dipole array particle cloud in EM.LiberaTempo with the ellipsoid container in the freeze state.]]
</td>
</tr>
</table>
== Printed Dipole Plateau Terrain Wizard ==
ICON: [[File:print_dpl iconplateau_icon.png]]
MENU: '''Tools → Antenna Propagation Wizards → Printed Dipole AntennaPlateau Terrain'''
MODULE(S): [[EM.Tempo]], [[EM.PicassoTerrano]]
FUNCTION: Creates the parameterized geometry of a printed dipole antenna on plateau terrain with a dielectric substrate random rough surface in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], the printed dipole consists of two PEC strips fed by This wizard creates a lumped source on plateau terrain using a short joining linesurface object generated with a bi-sigmoid profile. In [[EM.Picasso]], the printed dipole The surface is a single PEC strip with a gap source then roughened based on itthe specified statistics.
PYTHON COMMAND(S): emag_plateau(area_size,height,slope,elevation,res,rms_height,correl_len)
emag_printed_dipole_tempo(h,er,wid,sub_size,has_ground)
emag_printed_dipole_picasso(h,er,wid,has_ground)Â Â PRINTED DIPOLE PLATEAU TERRAIN WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | harea_size
| real numeric
| meter
| 0.0015200| substrate thickness (height) dimensions of the square terrain surface
|-
! scope="row" | erheight
| real numeric
| -meter| 2.2 10| substrate relative permittivity height of the hill
|-
! scope="row" | widslope
| real numeric
| meter
| 0.0051| strip width slope of the bi-sigmoid surface profile
|-
! scope="row" | sub_sizeelevation
| real numeric
| meter
| 0.155| substrate dimensions along X and Y (only in [[EM.Tempo]])base elevation of whole terrain surface
|-
! scope="row" | has_groundres| Booleanreal numeric| meter| 10| resolution of terrain surface | -! scope="row" | Truerms_height| Places a PEC ground plane real numeric| meter| 0.5| RMS height of the same size as random rough surface |-! scope="row" | correl_len| real numeric| meter| 10| correlation length of the dielectric substrate random rough surface
|}
<tr>
<td>
[[Image:wiz_print_dpl_tempowiz_plateau.png|thumb|500px|Default printed dipole antenna plateau terrain in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_print_dpl_picasso.png|thumb|500px|Default printed dipole antenna in EM.PicassoTerrano.]]
</td>
</tr>
</table>
== Probe-Fed Patch Printed Dipole Wizard ==
ICON: [[File:probe_patch_iconprint_dpl icon.png]]
MENU: '''Tools → Antenna Wizards → Probe-Fed Patch Printed Dipole Antenna'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of a probe-fed rectangular patch printed dipole antenna on a dielectric substrate in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], the patch antenna is printed dipole consists of two PEC strips fed by a lumped source on a short vertical PEC joining line. In [[EM.Picasso]], the patch antenna printed dipole is fed by a probe single PEC strip with a gap source on a short vertical PEC via. In both modules, the dimensions of the square patch are set equal to 0.47 times the effective dielectric wavelength, which can be changedit.
PYTHON COMMAND(S):
emag_patch_tempoemag_printed_dipole_tempo(h,er,feed_ratiowid,sub_size,has_ground)
emag_patch_picassoemag_printed_dipole_picasso(h,er,feed_ratiowid,feed_radhas_ground)
PATCH PRINTED DIPOLE WIZARD PARAMETERS
{| border="0"
|-
| substrate relative permittivity
|-
! scope="row" | feed_ratio| real numeric| -| 0.4| ratio of location of probe to half patch length xf/(a/2) |-! scope="row" | feed_radwid
| real numeric
| meter
| 0.005
| radius of probe via strip width
|-
! scope="row" | sub_size
| 0.15
| substrate dimensions along X and Y (only in [[EM.Tempo]])
|-
! scope="row" | has_ground
| Boolean
| -
| True
| Places a PEC ground plane of the same size as the dielectric substrate
|}
<tr>
<td>
[[Image:wiz_patch_tempowiz_print_dpl_tempo.png|thumb|500px|Default probe-fed patch printed dipole antenna in EM.Tempo.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_patch_picassowiz_print_dpl_picasso.png|thumb|500px|Default probe-fed patch printed dipole antenna in EM.Picasso.]]
</td>
</tr>
</table>
== MicrostripProbe-Fed Patch Wizard ==
ICON: [[File:us_patch_iconprobe_patch_icon.png]]
MENU: '''Tools → Antenna Wizards → MicrostripProbe-Fed Patch Antenna'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of a microstripprobe-fed rectangular patch antenna in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: The wizard asks you whether you want a microstrip-fed patch antenna with a recessed feed or one with a direct microstrip line junction. In [[EM.Tempo]], the feed line patch antenna is excited fed by a microstrip portlumped source on a short vertical PEC line. In [[EM.Picasso]], the feed line has patch antenna is fed by a scattering wave portprobe source on a short vertical PEC via. The total In both modules, the dimensions of the square patch are set equal to 0.5 47 times the effective dielectric wavelength, which can be changed.
PYTHON COMMAND(S):
emag_microstrip_fed_patch_tempoemag_patch_tempo(is_recess,h,er,z0,feed_len,recess_dep,recess_wid,sub_lenfeed_ratio,sub_widsub_size)
emag_microstrip_fed_patch_picassoemag_patch_picasso(is_recess,h,er,z0,feed_len,recess_depfeed_ratio,recess_widfeed_rad)
MICROSTRIP-FED PATCH WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Default Value
! scope="col"| Notes
|-
! scope="row" | is_recess
| Boolean
| -
| True
| Creates a recessed feed vs. a direct microstrip line junction to the patch
|-
! scope="row" | h
| substrate relative permittivity
|-
! scope="row" | z0feed_ratio
| real numeric
| Ohms-| 50 0.4| characteristic impedance ratio of the microstrip feed location of probe to half patch length xf/(a/2)
|-
! scope="row" | feed_len| real numeric| meter| 0.075| length of the microstrip feed line |-! scope="row" | recess_dep| real numeric| meter| 0.015| depth of the feed recess |-! scope="row" | recess_widfeed_rad
| real numeric
| meter
| 0.005
| width radius of the recess gaps probe via
|-
! scope="row" | sub_lensub_size
| real numeric
| meter
| 0.315| substrate dimension dimensions along X (only in [[EM.Tempo]])|-! scope="row" | sub_wid| real numeric| meter| 0.3| substrate dimension along and Y (only in [[EM.Tempo]])
|}
<tr>
<td>
[[Image:wiz_us_patch_tempowiz_patch_tempo.png|thumb|500px|Default microstripprobe-fed patch antenna in EM.Tempo.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_us_patch_picassowiz_patch_picasso.png|thumb|500px|Default microstripprobe-fed patch antenna in EM.Picasso.]]</td></tr><tr><td>[[Image:wiz_us_patch_recess_tempo.png|thumb|500px|Default microstrip-fed patch antenna with a recessed feed in EM.Tempo.]]</td></tr><tr><td>[[Image:wiz_us_patch_recess_picasso.png|thumb|500px|Default microstrip-fed patch antenna with a recessed feed in EM.Picasso.]]
</td>
</tr>
</table>
== Slot-Coupled Patch Random City Wizard ==
ICON: [[File:slot_patch_iconrnd_city_icon.png]]
MENU: '''Tools → Antenna Propagation Wizards → Slot-Coupled Patch AntennaRandom City'''
MODULE(S): [[EM.Tempo]], [[EM.PicassoTerrano]]
FUNCTION: Creates the parameterized geometry of a slot-coupled rectangular patch antenna set of randomly located and randomly oriented buildings with random dimensions and impenetrable walls in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a substrate realistic urban propagation scene with two dielectric layers, which are separated by randomly located buildings in a PEC ground plane hosting a coupling slotsquare area of specified size. The upper layer hosts a rectangular patch antennaIt can be used in two different ways. The bottom layer hosts a microstrip feed line with an open stubIn the fully random mode, which is extended past all the slot location. The total dimensions of the square patch generated buildings are set equal to 0assigned and always retain random parameter values.47 times Every time you open the Variables Dialog or open the effective dielectric wavelengthsame project, which can be changedall the random variables get updated values. The length of In the open stub beyond semi-random mode, the slot location is set equal to a quarter guide wavelengthbuildings are initially generated based on random parameter values, which can be changed, toobut these value are then fixed and locked for good.
PYTHON COMMAND(S): emag_random_city(city_size,n_buildings,rotate_bldg,semi_random,building_base_min,building_base_max,building_height_min,building_height_max,er,sig)
emag_slot_coupled_patch_tempo(h_patch,er_patch,h_feed,er_feed,slot_len,slot_wid,z0,feed_len,sub_len,sub_wid)
emag_slot_coupled_patch_picasso(h_patch,er_patch,h_feed,er_feed,slot_len,slot_wid,z0,feed_len)Â Â SLOT-COUPLED PATCH RANDOM CITY WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | h_patchcity_size
| real numeric
| meter
| 0.0015250| thickness (height) total dimensions of the top substrate layer square city area
|-
! scope="row" | er_patchn_buildings| real integer numeric
| -
| 2.2 25 | relative permittivity total number of the top substrate layerbuildings
|-
! scope="row" | h_feedrotate_bldg| real numericBoolean| meter-| 0.0015False| thickness (height) of sets the bottom substrate layer rotation angles of each building as random variables
|-
! scope="row" | er_feedsemi_random| real numericBoolean
| -
| 2.2 True| relative permittivity if false, the the locations, orientations and extents of the bottom substrate layerbuildings change randomly all the time
|-
! scope="row" | slot_lenbuilding_base_min
| real numeric
| meter
| 0.0210| length minimum dimension of the coupling slot base of the individual buildings
|-
! scope="row" | slot_widbuilding_base_max
| real numeric
| meter
| 0.002520| width maximum dimension of the coupling slot base of the individual buildings
|-
! scope="row" | z0building_height_min
| real numeric
| Ohmsmeter| 50 5| characteristic impedance minimum height of the microstrip feed individual buildings
|-
! scope="row" | feed_lenbuilding_height_max
| real numeric
| meter
| 0.120| length maximum height of the microstrip feed line individual buildings
|-
! scope="row" | sub_lener
| real numeric
| meter-| 04.34| substrate dimension along X (only in [[EM.Tempo]])relative permittivity of building walls
|-
! scope="row" | sub_widsig
| real numeric
| meterS/m| 0.1e-3| substrate dimension along Y (only in [[EM.Tempo]])conductivity of building walls
|}
<tr>
<td>
[[Image:wiz_slot_patch_tempowiz_random_city1.png|thumb|500px|Default slot-coupled patch antenna random city propagation scene in EM.TempoTerrano.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_slot_patch_picassowiz_random_city1_rot.png|thumb|500px|Default slot-coupled patch antenna random city propagation scene in EM.PicassoTerrano with random building orientations.]]
</td>
</tr>
</table>
== Linear Slot Rectangular Waveguide Wizard ==
ICON: [[File:slot_iconwg1p icon.png]]
MENU: '''Tools → Antenna Transmission Line Wizards → Linear SlotRectangular Waveguide'''
MODULE(S): [[CubeCAD]], [[EM.Illumina]], [[EM.Ferma]], [[EM.LiberaTempo]]
FUNCTION: Creates the parameterized geometry of a narrow rectangular slot in a ground planewaveguide segment slightly above the cutoff at the center frequency of the project
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard simply creates a linear slot one-port open-ended rectangular waveguide segment in a ground plane using Boolean subtraction[[EM.Tempo]]. The width of the waveguide is set slightly larger than half its cutoff wavelength for the dominant TE10 mode. The height is set equal to half its width. Both the width and height can be replaced by arbitrary numeric values.
PYTHON COMMAND(S): emag_linear_slotemag_rect_waveguide(slot_lenwg_len,slot_wid,metal_sizeport_offset)
LINEAR SLOT WAVEGUIDE WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | slot_lenwg_len
| real numeric
| project unitsmeters | 1001| length of the slot waveguide segment
|-
! scope="row" | slot_widport_offset
| real numeric
| project unitsmeters | 100.075 | length distance between port plane and the first open end of the slot waveguide |} <table><tr><td>[[Image:wiz_wg_tempo.png|thumb|500px|Default rectangular waveguide segment with a shorted end wall in EM.Tempo.]]</td></tr></table> == Sierpinski Wizard == ICON: [[File:sierpin icon.png]]  MENU: '''Tools → Component Wizards → Sierpinski Strip''' MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Picasso]], [[EM.Libera]]  FUNCTION: Creates the geometry of a Sierpinski triangle fractal in the project workspace NOTES, SPECIAL CASES OR EXCEPTIONS: A dialog asks you to enter values for the key size and number of fractal levels. The wizard creates the Sierpinski triangle as a large set of smaller triangles, which cannot be modified using variables afterwards. You may want to group the set of all the triangles as a single composite object.   PYTHON COMMAND(S): emag_sierpinski(key_size,levels)  SIERPINSKI WIZARD PARAMETERS{| border="0"
|-
| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | metal_sizekey_size
| real numeric
| project units
| 200100| dimensions side length of the square metal groundlargest (outermost) triangle |-! scope="row" | levels| integer numeric| -| 3| number of fractal levels
|}
<tr>
<td>
[[Image:wiz_slot_cadwiz_sierpin_tempo.png|thumb|500px|Default linear slot Sierpinski triangle strip in CubeCADEM.Tempo.]]
</td>
</tr>
</table>
== Slot Antenna Array Wizard ==
ICON: [[File:slot_iconslot_array_icon.png]]
MENU: '''Tools → Antenna Wizards → Linear Slot AntennaArray'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of a slot antenna array in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], the wizard creates a an array of slot antenna antennas excited by a lumped source sources on a short line lines across the slotslots. In [[EM.Picasso]], the wizard creates a slot antenna array on a slot trace fed by a magnetic gap (current) sourcesources. The length of the each slot is set equal to a half the effective wavelength, which can be changed.
PYTHON COMMAND(S):
emag_slot_tempoemag_slot_array_tempo(h,er,slot_wid,sub_size,feed_offset,nx,ny,spacing_x_lambda,spacing_y_lambda)
emag_slot_picassoemag_slot_array_picasso(h,er,slot_wid,feed_offset,nx,ny,spacing_x_lambda,spacing_y_lambda)
SLOT ANTENNA ARRAY WIZARD PARAMETERS
{| border="0"
|-
| meter
| 0.2
| dimensions of the square substrate & ground (only in [[EM|-! scope="row" | nx| integer numeric| -| 2 | number of elements along X |-! scope="row" | ny| integer numeric| -| 2 | number of elements along Y |-! scope="row" | spacing_x_lambda| real numeric| -| 0.Tempo]])5| element spacing along X normalized to free-space wavelength|-! scope="row" | spacing_y_lambda| real numeric| -| 0.5| element spacing along Y normalized to free-space wavelength
|}
<table>
<td>
[[Image:wiz_slot_tempowiz_slot_array_tempo.png|thumb|500px|Default slot antenna array in EM.Tempo.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_slot_picassowiz_slot_array_picasso.png|thumb|500px|Default slot antenna array in EM.Picasso.]]
</td>
</tr>
</table>
== Linear Slot Array Antenna Wizard ==
ICON: [[File:slot_array_iconslot_icon.png]]
MENU: '''Tools → Antenna Wizards → Linear Slot ArrayAntenna'''
MODULE(S): [[CubeCAD]], [[EM.Illumina]], [[EM.FermaTempo]], [[EM.LiberaPicasso]]
FUNCTION: Creates the parameterized geometry of an array of narrow rectangular slots in a ground planeslot antenna in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This In [[EM.Tempo]], the wizard simply creates an array a slot antenna excited by a lumped source on a short line across the slot. In [[EM.Picasso]], the wizard creates a slot antenna on a slot trace fed by a magnetic gap (current) source. The length of linear slots in the slot is set equal to a ground plane using Boolean subtractionhalf the effective wavelength, which can be changed.
PYTHON COMMAND(S): emag_linear_slot_array(slot_len,slot_wid,nx,ny,spacing_x,spacing_y)
emag_slot_tempo(h,er,slot_wid,sub_size,feed_offset)
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emag_slot_picasso(h,er,slot_wid,feed_offset)
LINEAR SLOT ARRAY ANTENNA WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | slot_lenh
| real numeric
| project unitsmeter| 1000.0015| length of the slot substrate thickness (height)
|-
! scope="row" | slot_wider
| real numeric
| project units
| 10
| length of the slot
|-
! scope="row" | nx
| integer numeric
| -
| 2.2 | number of elements along X substrate relative permittivity
|-
! scope="row" | nyslot_wid| integer real numeric| -meter| 2 0.005| number width of elements along Y the slot
|-
! scope="row" | spacing_xfeed_offset
| real numeric
| -meter| 1500.0| element spacing along Xdistance of feed from center of the slot - can be positive or negative
|-
! scope="row" | spacing_ysub_size
| real numeric
| -meter| 1500.2| element spacing along Ydimensions of the square substrate & ground (only in [[EM.Tempo]])
|}
<tr>
<td>
[[Image:wiz_slot_array_cadwiz_slot_tempo.png|thumb|500px|Default linear slot array antenna in CubeCADEM.Tempo.]]</td></tr><tr><td>[[Image:wiz_slot_picasso.png|thumb|500px|Default slot antenna in EM.Picasso.]]
</td>
</tr>
</table>
== Slot Antenna Array -Coupled Patch Wizard ==
ICON: [[File:slot_array_iconslot_patch_icon.png]]
MENU: '''Tools → Antenna Wizards → Slot -Coupled Patch Antenna Array'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of a slot -coupled rectangular patch antenna array in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]], the This wizard creates an array of slot antennas excited a substrate with two dielectric layers, which are separated by lumped sources on short lines across the slotsa PEC ground plane hosting a coupling slot. In [[EMThe upper layer hosts a rectangular patch antenna.Picasso]]The bottom layer hosts a microstrip feed line with an open stub, which is extended past the wizard creates a slot antenna array on a slot trace fed by a magnetic gap (current) sourceslocation. The total dimensions of the square patch are set equal to 0.47 times the effective dielectric wavelength, which can be changed. The length of each the open stub beyond the slot location is set equal to a half the effective quarter guide wavelength, which can be changed, too.
PYTHON COMMAND(S):
emag_slot_array_tempoemag_slot_coupled_patch_tempo(hh_patch,erer_patch,slot_widh_feed,feed_offseter_feed,slot_len,slot_wid,nxz0,nyfeed_len,spacing_x_lambdasub_len,spacing_y_lambdasub_wid)
emag_slot_array_picassoemag_slot_coupled_patch_picasso(hh_patch,erer_patch,slot_widh_feed,feed_offseter_feed,nxslot_len,nyslot_wid,spacing_x_lambdaz0,spacing_y_lambdafeed_len)
SLOT ANTENNA ARRAY -COUPLED PATCH WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | hh_patch
| real numeric
| meter
| 0.0015
| substrate thickness (height) of the top substrate layer
|-
! scope="row" | erer_patch
| real numeric
| -
| 2.2
| substrate relative permittivity of the top substrate layer
|-
! scope="row" | slot_widh_feed
| real numeric
| meter
| 0.0050015| width thickness (height) of the slot bottom substrate layer
|-
! scope="row" | feed_offseter_feed| real numeric| -| 2.2 | relative permittivity of the bottom substrate layer|-! scope="row" | slot_len
| real numeric
| meter
| 0.002| distance of feed from center length of the coupling slot - can be positive or negative
|-
! scope="row" | sub_sizeslot_wid
| real numeric
| meter
| 0.20025| dimensions width of the square substrate & groundcoupling slot
|-
! scope="row" | nxz0| integer real numeric| -Ohms| 2 50 | number characteristic impedance of elements along X the microstrip feed
|-
! scope="row" | nyfeed_len| integer real numeric| -meter| 2 0.1| number length of elements along Y the microstrip feed line
|-
! scope="row" | spacing_x_lambdasub_len
| real numeric
| -meter| 0.53| element spacing substrate dimension along X normalized to free-space wavelength(only in [[EM.Tempo]])
|-
! scope="row" | spacing_y_lambdasub_wid
| real numeric
| -meter| 0.53| element spacing substrate dimension along Y normalized to free-space wavelength(only in [[EM.Tempo]])
|}
== Cross Slot Wizard ==<table><tr><td>[[Image:wiz_slot_patch_tempo.png|thumb|500px|Default slot-coupled patch antenna in EM.Tempo with the patch, middle ground and substrate layers in the freeze state.]]</td></tr><tr><td>[[Image:wiz_slot_patch_picasso.png|thumb|500px|Default slot-coupled patch antenna in EM.Picasso with the patch in the freeze state.]]</td></tr></table>
ICON: [[File:cross_icon.png]] == Solenoid Wizard ==
MENUICON: '''Tools → Antenna Wizards → Cross Slot'''[[File:solenoid icon.png]]
MODULE(S)MENU: [[CubeCAD]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]] '''Tools → Component Wizards → Solenoid'''
FUNCTIONMODULE(S): Creates the parameterized geometry of a narrow cross slot in a ground plane[[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Tempo]], [[EM.Ferma]], [[EM.Libera]]
NOTES, SPECIAL CASES OR EXCEPTIONSFUNCTION: This wizard simply creates Creates the parameterized geometry of a solenoid with a generalized super-quadratic cross slot section in a ground plane using Boolean subtraction. the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Ferma]], this wizard turns the solenoid into a wire current source.
PYTHON COMMAND(S): emag_cross_slot(slot_len,slot_wid,metal_size)
PYTHON COMMAND(S):
LINEAR SLOT emag_solenoid(major_rad,minor_rad,height,turns,order,step)Â emag_solenoid_ferma(major_rad,minor_rad,height,turns,order,step,current,wire_rad)Â Â SOLENOID WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | slot_lenmajor_rad
| real numeric
| project units
| 1002 | total length major radius of each slot armthe super-quadratic cross section
|-
! scope="row" | slot_widminor_rad
| real numeric
| project units
| 102 | total length minor radius of each slot arm the super-quadratic cross section
|-
! scope="row" | metal_sizeheight
| real numeric
| project units| 20010 | dimensions total height of the square metal groundsolenoid |-! scope="row" | turns| integer numeric| - | 10 | total number of turns|-! scope="row" | order| integer numeric| - | 2 | order of the super-quadratic curve, N = 2 produces an ellipse|-! scope="row" | step| real numeric| - | 0.005 | increment in the interval [0, 2*pi] - determines the resolution of the curve |-! scope="row" | current| real numeric| Amp | 1| total current flowing through the solenoid (only in [[EM.Ferma]])|-! scope="row" | wire_rad| real numeric| project units | 0.0005 | radius of the solenoid wire (only in [[EM.Ferma]])
|}
<tr>
<td>
[[Image:wiz_cross_cadwiz_solenoid_cad.png|thumb|500px360px|Default cross slot solenoid in CubeCAD.]]</td></tr><tr><td>[[Image:wiz_solenoid_ferma.png|thumb|360px|Default solenoid in EM.Ferma.]]
</td>
</tr>
</table>
== Cross Slot Antenna Stripline Wizard ==
ICON: [[File:cross_iconus1p icon.png]]
MENU: '''Tools → Antenna Transmission Line Wizards → Cross Slot AntennaStripline Line'''
MODULE(S): [[EM.Tempo]], [[EM.Picasso]], [[EM.Ferma]]
FUNCTION: Creates the parameterized geometry of a cross slot antenna stripline segment of a specified characteristic impedance on a conductor-backed single-layer dielectric substrate in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: In [[EM.Tempo]] and [[EM.Picasso]], the this wizard creates a cross slot antenna on a dielectric substrateone-port open-ended stripline transmission line segment. In [[EM.PicassoFerma]], it sets up a 2D solution plane for quasi-static analysis of the wizard creates a cross slot antenna on a slot tracestripline transmission line. The total length width of each slot the stripline is set equal to a half determined based on the effective wavelength, which can specified characteristic impedance. It may be changed. This wizard does not provide replaced by a default excitation source in either modulenumeric value instead.
PYTHON COMMAND(S):
emag_slot_tempoemag_stripline_tempo(hht,erert,slot_widhb,sub_sizeerb,feed_wid,cetner_len,sub_len,sub_wid)
emag_slot_picassoemag_stripline_picasso(hht,erert,slot_widhb,erb,feed_wid,center_len)
emag_stripline_ferma(ht,ert,hb,erb,strip_wid,box_multiplier)
CROSS SLOT ANTENNA [[EM.Tempo|EM.TEMPO]] STRIPLINE WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | hht
| real numeric
| metermeters | 0.0015| top substrate thickness (height(thickness)
|-
! scope="row" | erert
| real numeric
| -
| 2.2
| top substrate relative permittivity
|-
! scope="row" | slot_widhb
| real numeric
| metermeters | 0.0050015 | width of the slot bottom substrate height (thickness)
|-
! scope="row" | sub_sizeerb
| real numeric
| meter- | 02.2| dimensions bottom substrate relative permittivity |-! scope="row" | feed_wid| real numeric| meters| 0.002 | width of the square feed strip segment|-! scope="row" | center_wid| real numeric| meters| feed_wid| width of center strip segment|-! scope="row" | center_len| real numeric| meters | 0.03 | length of center line segment |-! scope="row" | sub_len| real numeric| meters | 0.1 | length of substrate|-! scope="row" | sub_wid| real numeric| meters | 0.05 | width of substrate|}Â [[EM.Picasso|EM.PICASSO]] STRIPLINE WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | ht| real numeric| meters | 0.0015 | top substrate & ground height (only in thickness) |-! scope="row" | ert | real numeric| - | 2.2 | top substrate relative permittivity |-! scope="row" | hb| real numeric| meters | 0.0015 | bottom substrate height (thickness) |-! scope="row" | erb | real numeric| - | 2.2 | bottom substrate relative permittivity |-! scope="row" | feed_wid| real numeric| meters| center_width | width of feed strip segment|-! scope="row" | center_wid| real numeric| meters| feed_wid | width of center strip segment|-! scope="row" | center_len| real numeric| meters | 0.03 | length of center line segment |-! scope="row" | feed_len| real numeric| meters | 0.5 * center_len| length of feed line segment |}Â [[EM.TempoFerma|EM.FERMA]]STRIPLINE WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | ht| real numeric| meters | 0.0015 | top substrate height (thickness)|-! scope="row" | ert | real numeric| - | 2.2 | top substrate relative permittivity |-! scope="row" | hb| real numeric| meters | 0.0015 | bottom substrate height (thickness) |-! scope="row" | erb | real numeric| - | 2.2 | bottom substrate relative permittivity |-! scope="row" | strip_wid| real numeric| meters| 0.002 | strip width |-! scope="row" | box_multiplier| real numeric| - | 10 | ratio of box width to strip width
|}
<table>
<tr>
<td>
[[Image:wiz_cross_tempoWiz strpln tempo.png|thumb|500px|Default cross slot antenna stripline line segment in EM.Tempo.]]
</td>
</tr>
<tr>
<td>
[[Image:wiz_cross_picassoWiz strpln picasso.png|thumb|500px|Default cross slot antenna stripline line segment in EM.Picasso.]]</td></tr><tr><td>[[Image:Wiz strpln ferma.png|thumb|500px|Default 2D stripline line in EM.Ferma.]]
</td>
</tr>
</table>
== Horn Antenna Trihedral Reflector Wizard ==
ICON: [[File:horn_icontrihed icon.png]]
MENU: '''Tools → Antenna Component Wizards → Horn AntennaTrihedral Reflector'''
MODULE(S): [[Building_Geometrical_Constructions_in_CubeCAD | CubeCAD]], [[EM.Tempo]], [[EM.Illumina]], [[EM.Ferma]], [[EM.Libera]]
FUNCTION: Creates the parameterized geometry of a pyramidal horn antenna Trihedral corner reflector in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a pyramidal horn antenna fed by a rectangular waveguide with a TE10 modal excitation. The larger dimension aperture diameter of the feeding waveguide reflector is set slightly larger than half its cutoff wavelength for the dominant TE10 mode. The aspect ratio of the waveguide's cross section is 2:1. Its length is set to half the free-space wavelength. All of these dimensions can be replaced by arbitrary numeric values. The horn aperture dimensions and its overall length are calculated determined based on the specified antenna gain. All focal and axial lengths of these dimensions can be changed, toothe primitive parabola.
PYTHON COMMAND(S): emag_hornemag_trihedral_reflector(gain_dBside)
HORN ANTENNA TRIHEDRAL REFLECTOR WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | gain_dBside
| real numeric
| -project units| 15100| gain of the horn antenna square wall dimensions
|}
<tr>
<td>
[[Image:wiz_hornwiz_trihed_tempo.png|thumb|500px360px|Default horn antenna trihedral reflector in EM.Tempo.]]
</td>
</tr>
</table>
== Horn Antenna Array Two-Port Coaxial Wizard ==
ICON: [[File:horn_array_iconcoax2p icon.png]]
MENU: '''Tools → Antenna Transmission Line Wizards → Horn Antenna ArrayTwo-Port Coaxial Line'''
MODULE(S): [[EM.Tempo]]
FUNCTION: Creates the parameterized geometry of a pyramidal horn antenna array two-port coaxial line segment of a specified characteristic impedance with a dielectric core in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates an array of pyramidal horn antennas fed by rectangular waveguides with a TE10 modal excitation. The larger dimension radius of each feeding waveguide is set slightly larger than half its cutoff wavelength for the dominant TE10 mode. The aspect ratio of each waveguide's cross section outer conductor is 2:1. Its length is set to half determined based on the free-space wavelengthspecified characteristic impedance. All of these dimensions can It may be replaced by arbitrary a numeric values. The horn aperture dimensions and its overall length are calculated based on the specified antenna gain. All of these dimensions can be changed, toovalue instead.
PYTHON COMMAND(S): emag_horn_arrayemag_coax_2port_tempo(gain_dBer,nxz0,nyr_inner,spacing_x_lambda,spacing_y_lambdalen)
CROSS SLOT ANTENNA TWO-PORT COAXIAL WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | gain_dBer
| real numeric
| -| 152.2 | gain relative permittivity of each individual horn elementthe dielectric core
|-
! scope="row" | nxz0| integer real numeric| -Ohms | 2 50 | number of elements along X characteristic impedance
|-
! scope="row" | ny| integer numeric| -| 2 | number of elements along Y |-! scope="row" | spacing_x_lambdar_inner
| real numeric
| -meters | 30.001 | element spacing along X normalized to free-space wavelengthradius of inner conductor
|-
! scope="row" | spacing_y_lambdalen
| real numeric
| -meters | 30.5 | element spacing along Y normalized to free-space wavelengthlength of the line segment
|}
<tr>
<td>
[[Image:wiz_horn_arraywiz_coax2p_tempo.png|thumb|500px|Default horn antenna array two-port coaxial line segment in EM.Tempo.]]
</td>
</tr>
</table>
== Random City Two-Port Coplanar Waveguide (CPW) Wizard ==
ICON: [[File:rnd_city_iconcpw2p icon.png]]
MENU: '''Tools → Propagation Transmission Line Wizards → Random CityTwo-Port Coplanar Waveguide'''
MODULE(S): [[EM.TerranoTempo]], [[EM.Picasso]]
FUNCTION: Creates a set the parameterized geometry of randomly located and randomly oriented buildings with random dimensions and impenetrable walls a two-port coplanar waveguide segment on a single-layer dielectric substrate in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a realistic urban propagation scene with randomly located buildings in a square area of specified size. It can be used in two different ways. In the fully random mode, all the generated buildings are assigned and always retain random parameter values[[EM. Every time you open the Variables Dialog or open the same projectTempo]], all the random variables get updated values. In the semi-random mode, the buildings two ports are initially generated based on random parameter values, but these value are then fixed and locked for good. By default, a half-wave vertical dipole transmitter is placed at the center of the scene and a grid two edges of isotropic receivers cover the entire propagation scenesubstrate.
PYTHON COMMAND(S): emag_random_city(city_size,n_buildings,add_TxRx,rotate_bldg,semi_random,building_base_min,building_base_max,building_height_min,building_height_max,er,sig,tx_h,rx_h,rx_spacing)
emag_cpw_2port_tempo(h,er,center_wid,slot_wid,center_len,sub_len,sub_wid,draw_substrate)
RANDOM CITY emag_cpw_2port_picasso(h,er,center_wid,slot_wid,center_len)Â Â [[EM.Tempo|EM.TEMPO]] TWO-PORT CPW WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | city_sizeh
| real numeric
| metermeters | 2500.0015 | total dimensions of the square city areasubstrate height (thickness)
|-
! scope="row" | n_buildingser | integer real numeric| -| 25 2.2 | total number of buildingssubstrate relative permittivity
|-
! scope="row" | add_TxRxcenter_wid| Booleanreal numeric| -meters | True 0.002 | adds a default transmitter at width of the origin of coordinates and a grid of receivers center strip
|-
! scope="row" | rotate_bldgslot_wid| Booleanreal numeric| -meters | False0.002 | sets the rotation angles width of each building as random variables the slots
|-
! scope="row" | semi_random| Boolean| -| False| if true, the buildings are initially generated via random variables, but their parameters are locked afterwards |-! scope="row" | building_base_mincenter_len
| real numeric
| metermeters | 100.05 | minimum dimension length of the base of the individual buildingscenter line segment
|-
! scope="row" | building_base_maxsub_len
| real numeric
| metermeters | 200.1 | maximum dimension length of the base of the individual buildingssubstrate
|-
! scope="row" | building_height_minsub_wid
| real numeric
| metermeters | 50.05 | minimum height width of the individual buildingssubstrate
|-
! scope="row" | building_height_maxdraw_substrate| Boolean| -| True | Adds substrate & ground plane|}Â [[EM.Picasso|EM.PICASSO]] TWO-PORT CPW WIZARD PARAMETERS{| border="0"|-| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | h
| real numeric
| metermeters | 200.0015 | maximum substrate height of the individual buildings(thickness)
|-
! scope="row" | er
| real numeric
| -| 42.42 | substrate relative permittivity of building walls
|-
! scope="row" | sigcenter_wid
| real numeric
| S/mmeters | 1e-30.002 | conductivity width of building wallsthe center strip
|-
! scope="row" | tx_hslot_wid
| real numeric
| metermeters | 100.002 | height width of the default transmitterslots
|-
! scope="row" | rx_hcenter_len
| real numeric
| metermeters | 1- | height length of the default receiverscenter line segment
|-
! scope="row" | rx_spacingfeed_len
| real numeric
| metermeters | 0.5* center_len | spacing among the individual receiverslength of feed line segment
|}
<tr>
<td>
[[Image:wiz_random_citywiz_cpw2p_tempo.png|thumb|500px|Default random city propagation scene two-port coplanar waveguide segment in EM.TerranoTempo.]]</td></tr><tr><td>[[Image:wiz_cpw2p_picasso.png|thumb|500px|Default two-port coplanar waveguide segment in EM.Picasso.]]
</td>
</tr>
</table>
== Office Building Two-Port Microstrip Wizard ==
ICON: [[File:office_iconus2p icon.png]]
MENU: '''Tools → Propagation Transmission Line Wizards → Office BuildingTwo-Port Microstrip Line'''
MODULE(S): [[EM.TerranoTempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of a multitwo-story office building with penetrable walls port microstrip line segment of a specified characteristic impedance on a conductor-backed single-layer dielectric substrate in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates an office building with multiple floor and rows In [[EM.Tempo]], the two ports are placed at the two edges of rooms separated the substrate. The width of the microstrip lines is determined based on the specified characteristic impedance. It may be replaced by hallwaysa numeric value instead.
PYTHON COMMAND(S): emag_office_building(room_len,room_wid,room_height,hallway_width,nx,ny,nz,er,sig,wall_thickness)
emag_microstrip_2port_tempo(h,er,z0,cetner_len,sub_len,sub_wid,draw_substrate)
OFFICE BUILDING emag_microstrip_2port_picasso(h,er,z0,center_len,feed_len)Â Â [[EM.Tempo|EM.TEMPO]] TWO-PORT MICROSTRIP WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | room_lenh
| real numeric
| metermeters | 60.0015 | length of individual roomssubstrate height (thickness)
|-
! scope="row" | room_wider
| real numeric
| meter- | 82.2 | width of individual roomssubstrate relative permittivity
|-
! scope="row" | room_heightz0
| real numeric
| meterOhms | 450 | height of individual roomscharacteristic impedance
|-
! scope="row" | hallway_widcenter_len
| real numeric
| metermeters | 20.05 | width length of interior hallwayscenter line segment
|-
! scope="row" | nxsub_len| integer real numeric| -meters | 5 0.1 | number length of rooms along Xsubstrate
|-
! scope="row" | nysub_wid| integer real numeric| -meters | 3 0.05 | number width of rooms along Ysubstrate
|-
! scope="row" | nzdraw_substrate| integer numericBoolean
| -
| 2 True | number of floors (number of rooms along Z)Adds substrate & ground plane|}Â [[EM.Picasso|EM.PICASSO]] TWO-PORT MICROSTRIP WIZARD PARAMETERS{| border="0"
|-
| valign="top"||-{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | erh
| real numeric
| -meters | 40.40015 | relative permittivity of building wallssubstrate height (thickness)
|-
! scope="row" | siger
| real numeric
| S/m- | 1e-32.2 | conductivity of building wallssubstrate relative permittivity
|-
! scope="row" | wall_thicknessz0
| real numeric
| meterOhms | 50 | characteristic impedance |-! scope="row" | center_len| real numeric| meters | 0.05 | length of center line segment |-! scope="row" | feed_len| real numeric| meters | 0.255 * center_len | thickness length of the individual wallsfeed line
|}
<tr>
<td>
[[Image:wiz_officewiz_us2p_tempo.png|thumb|500px|Default office building scene two-port microstrip line segment in EM.Terrano with its rooms Tempo.]]</td></tr><tr><td>[[Image:wiz_us2p_picasso.png|thumb|500px|Default two-port microstrip line segment in the freeze stateEM.Picasso.]]
</td>
</tr>
</table>
== Hilly Terrain Two-Port Rectangular Waveguide Wizard ==
ICON: [[File:hill_iconwg2p icon.png]]
MENU: '''Tools → Propagation Transmission Line Wizards → Hilly TerrainTwo-Port Rectangular Waveguide'''
MODULE(S): [[EM.TerranoTempo]]
FUNCTION: Creates the parameterized geometry of a hilly terrain with a random rough surface in two-port rectangular waveguide segment slightly above the cutoff at the center frequency of the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a hilly terrain using a surface object generated with a Gaussian profileThe width of the waveguide is set slightly larger than half its cutoff wavelength for the dominant TE10 mode. The surface height is then roughened based on set equal to half its width. Both the specified statisticswidth and height can be replaced by arbitrary numeric values.
PYTHON COMMAND(S): emag_hillemag_rect_waveguide_2port(area_sizewg_len,heightfeed_len,radius,elevation,res,rms_height,correl_lenport_offset)
HILLY TERRAIN TWO-PORT WAVEGUIDE WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | area_sizewg_len
| real numeric
| metermeters | 500.5 | dimensions length of the square terrain surfacemiddle waveguide segment
|-
! scope="row" | heightfeed_len
| real numeric
| metermeters | 150.25 | height length of the hillfeed waveguide segments
|-
! scope="row" | radiusport_offset
| real numeric
| metermeters | 200.15 | radius of distance between port planes and the Gaussian surface profile|-! scope="row" | elevation| real numeric| meter| 1| base elevation of whole terrain surface |-! scope="row" | res| real numeric| meter| 5| resolution of terrain surface |-! scope="row" | rms_height| real numeric| meter| 1| RMS height of the random rough surface |-! scope="row" | correl_len| real numeric| meter| 5| correlation length open ends of the random rough surface waveguide
|}
<tr>
<td>
[[Image:wiz_hillwiz_wg2p_tempo.png|thumb|500px|Default hilly terrain two-port rectangular waveguide segment in EM.TerranoTempo with the two open-end feed sections in the freeze state.]]
</td>
</tr>
</table>
== Mountainous Terrain Two-Port Stripline Wizard ==
ICON: [[File:mountain_iconus2p icon.png]]
MENU: '''Tools → Propagation Transmission Line Wizards → Mountainous TerrainTwo-Port Stripline'''
MODULE(S): [[EM.TerranoTempo]], [[EM.Picasso]]
FUNCTION: Creates the parameterized geometry of a mountainous terrain with two-port stripline segment of a random rough surface specified characteristic impedance on a conductor-backed single-layer dielectric substrate in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a mountainous terrain using a surface object generated with a bi-cubic spline profileIn [[EM.Tempo]], the two ports are placed at the two edges of the substrate. The surface width of the Stripline is then roughened determined based on the specified statisticscharacteristic impedance. This wizard can It may be used to create either a mountain range with three peaks or replaced by a single-peak mountainnumeric value instead.
PYTHON COMMAND(S): emag_mountain emag_stripline_2port_tempo(is_rangeht,area_sizeert,heighthb,height_differb,radiusfeed_wid,spacingcetner_len,elevationsub_len,res,rms_height,correl_lensub_wid)
emag_stripline_2port_picasso(ht,ert,hb,erb,feed_wid,center_len)
MOUNTAINOUS TERRAIN [[EM.Tempo|EM.TEMPO]] TWO-PORT STRIPLINE WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | is_rangeht| Booleanreal numeric| -meters | True 0.0015 | if true, creates a mountain range with three peaks, otherwise, creates a single peak top substrate height (thickness)
|-
! scope="row" | area_sizeert
| real numeric
| meter- | 2002.2 | dimensions of the square terrain surfacetop substrate relative permittivity
|-
! scope="row" | heighthb
| real numeric
| metermeters | 2000.0015 | bottom substrate height of the hill(thickness)
|-
! scope="row" | height_differb
| real numeric
| meter- | 402.2 | difference between the heights of the center peak and the two lateral peaks in the case of a mountain rangebottom substrate relative permittivity
|-
! scope="row" | radiusfeed_wid
| real numeric
| metermeters| 500.002 | radius width of the bi-cubic spline surface profilefeed line segment
|-
! scope="row" | spacingcenter_wid
| real numeric
| metermeters| 70feed_wid| spacing between the center peak and the two lateral peaks in the case width of a mountain rangecenter line segment
|-
! scope="row" | elevationcenter_len
| real numeric
| metermeters | 10.03 | base elevation length of whole terrain surface center line segment
|-
! scope="row" | ressub_len
| real numeric
| metermeters | 50.1 | resolution length of terrain surface substrate
|-
! scope="row" | rms_heightsub_wid
| real numeric
| metermeters | 10.05 | RMS height width of the random rough surface substrate |}Â [[EM.Picasso|EM.PICASSO]] TWO-PORT STRIPLINE WIZARD PARAMETERS{| border="0"|-| valign="top"|
|-
{| class="wikitable"|-! scope="col"| Parameter Name! scope="col"| Value Type! scope="col"| Units! scope="col"| Default Value! scope="col"| Notes|-! scope="row" | correl_lenht
| real numeric
| metermeters | 50.0015 | top substrate height (thickness) |-! scope="row" | ert| real numeric| - | 2.2 | top substrate relative permittivity |-! scope="row" | hb| real numeric| meters | 0.0015 | bottom substrate height (thickness) |-! scope="row" | erb| real numeric| - | 2.2 | bottom substrate relative permittivity |-! scope="row" | feed_wid| real numeric| meters| 0.002 | width of feed line segment |-! scope="row" | center_wid| real numeric| meters| feed_wid| width of center line segment |-! scope="row" | center_len| real numeric| meters | 0.03 | correlation length of the random rough surface center line segment |-! scope="row" | feed_len| real numeric| meters | 0.5 * center_len | length of feed line segment
|}
<tr>
<td>
[[Image:wiz_mountainWiz strpln2p tempo.png|thumb|500px|Default mountainous terrain two-port stripline segment in EM.TerranoTempo.]]</td></tr><tr><td>[[Image:Wiz strpln2p picasso.png|thumb|500px|Default two-port stripline segment in EM.Picasso.]]
</td>
</tr>
</table>
== Plateau Terrain Yagi-Uda Array Wizard ==
ICON: [[File:plateau_iconyagi icon.png]]
MENU: '''Tools → Propagation Antenna Wizards → Plateau TerrainYagi-Uda Dipole Array'''
MODULE(S): [[EM.TerranoLibera]]
FUNCTION: Creates the parameterized geometry of a plateau terrain with a random rough surface Yagi-Uda wire dipole array in the project workspace
NOTES, SPECIAL CASES OR EXCEPTIONS: This wizard creates a plateau terrain using a surface object generated with a bi-sigmoid profile. The surface is then roughened based on the specified statisticsdipole elements are all thin wires.
PYTHON COMMAND(S): emag_plateauemag_yagi(area_sizeexcite_len_lambda,heightreflect_len_lambda,slopereflect_spacing_lambda,elevationdirect_len_lambda,resdirect_spacing_lambda,rms_heightn_direct,correl_lenwire_rad_lambda)
PLATEAU TERRAIN YAGI WIZARD PARAMETERS
{| border="0"
|-
! scope="col"| Notes
|-
! scope="row" | area_sizeexcite_len_lambda
| real numeric
| meter-| 2000.47 | dimensions length of the square terrain surfaceexciter dipole normalized to free-space wavelength
|-
! scope="row" | heightreflect_len_lambda
| real numeric
| meter-| 100.5 | height length of the hillreflector dipole normalized to free-space wavelength
|-
! scope="row" | slopereflect_spacingn_lambda
| real numeric
| meter-| 0.125 | slope of the bispacing between reflector and exciter dipoles normalized to free-sigmoid surface profilespace wavelength
|-
! scope="row" | elevationdirect_len_lambda
| real numeric
| meter-| 0.5406 | base elevation length of whole terrain surface director dipoles normalized to free-space wavelength
|-
! scope="row" | resdirect_spacing_lambda
| real numeric
| meter-| 100.34 | resolution of terrain surface spacing between director dipoles normalized to free-space wavelength
|-
! scope="row" | rms_heightn_direct| real integer numeric| meter-| 0.5| RMS height number of the random rough surface director dipole elements along X
|-
! scope="row" | correl_lenwire_rad_lambda
| real numeric
| meter-| 100.003 | correlation length of the random rough surface wire radius normalized to free-space wavelength
|}
<tr>
<td>
[[Image:wiz_plateauwiz_yagi.png|thumb|500px|Default plateau terrain thin wire Yagi-Uda dipole array in EM.TerranoLibera.]]
</td>
</tr>
</table>
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