"TX/RX schedules" tab
======================

The **TX/RX schedules** tab contains the sheets with the coordinates of the generated electrodes, 
with details on n-poles and measurements pseudo-plots.

.. _fig_tab_TX_RX:
.. figure:: tab_TX_RX.png
	:scale: 50%
	:alt: Tab with sensor properties and pseudo-plots.
	:align: center
   
	Tab with sensor properties and pseudo-plots.
   
The tab consists of a topmost section with the toggle commands for selecting schedules to be 
displayed and a lower portion hosting the graphs.

Transceivers schedule
----------------------

.. figure:: tab_TRX.png
	:scale: 70%
	:alt: List with the properties of the transceivers.
	:align: center
   
	List with the properties of the transceivers.

The list of the transceivers contains information on the box electrodes:

	* Multisource box identifier.
	* Electrode number (1, 2 or 3).
	* X, Y and Z UTM coordinates in meters.
	* Geographic coordinates: longitude and latitude in degrees and decimals of degree.
   
TX multi-poles schedule
------------------------

.. figure:: tab_TX.png
	:scale: 70%
	:alt: List with the properties of the TX multi-poles.
	:align: center
   
	List with the properties of the TX multi-poles.

The list of TX multi-poles contains information on the TX combinations:

	* Identifiers of the group of TX boxes.
	* TX+ (A) box electrode.
	* TX- (B) box electrode.
	
   
Dataset schedule
---------------------
The list of measurements contains information on the total set of TX/RX combinations. Each row displays:

	* The TX boxes combinations.
	
	* The electrodes of each box working as TX+ (A) and TX- (B).
	
	* The RX box.
	
	* The electrodes of the RX box working as M and N.
	  
	* The **maximum depth of investigation** of the n-pole (in meters).
	
	* The depth at which the **maximum sensitivity** of the n-pole is recorded (in meters).
	
	* The **K geometric factor** of the n-pole.
	
	* The expected **Vmn signal** (mV).

	* The value of the **injected current** at TX (mA) that produces the potential Vmn at the receiving dipole.
	
	* The **apparent resistivity** (Ohm m) for the measurement.

.. figure:: tab_TX_RX.png
	:scale: 50%
	:alt: List with the properties of n-poles.
	:align: center
   
	List with the properties of n-poles.

**The list of n-poles is the only one that has interactive features**: selecting one
table row allows **to highlight the measurement** in the pseudo-plot view:
only the electrodes of the n-pole are colored (red for TX, green for RX) and the measurement is emphasized by a
highlighter circle. Remaining electrodes and measurements are represented in transparency.
In addition, if the **Display sensitivity plot** checkbox is checked, the sensitivity plot 
for that n-pole is shown.
To remove the transparency of the quadrupoles from the graphs click on the command
**Refresh view** of :numref:`fig_update`.

.. _fig_update:
.. figure:: update_all_icon.png
	:scale: 100%
	:alt: Refresh view command.
	:align: center
   
	Refresh view command.

The XY, YZ, XZ buttons allow to define the views on each of the three planes of the space.

Pseudo-plot
-----------

.. figure:: tab_TX_RX_plots2.png
	:scale: 70%
	:alt: Example of pseudo-plot.
	:align: center
   
	Example of pseudo-plot.

The pseudo-plot sumarizes the salient features of n-poles in terms of coverage, depth of 
investigation and signal strength.
The plot displays the position of the sensors.
The n-poles (colored points) are defined on the basis of the graphic properties described below.

	* On the xy plane, then-pole is conventionally placed at the **center of the RX dipole**.
	* The n-pole is placed at the z depth corresponding to the **maximum depth of investigation**.
	* The color scale assigned to the measurements is the one defined by the range of **absolute values ​​of the Vmn** signal.

Sensitivity plot for the quadrupole
-----------------------------------

.. figure:: sensitivity.png
	:scale: 70%
	:alt: Example of sensitivity plot.
	:align: center
   
	Example of sensitivity plot.

This plot shows the behavior of the **sensitivity of n-pole with depth**. 
This is the function that is integrated for the calculation of the maximum depth of investigation.