Updated README

README.md

@@ -6,53 +6,54 @@ Dipole RF Calculator
 <a href="https://github.com/bmike2047/dipole-rf-calculator">https://github.com/bmike2047/dipole-rf-calculator</a>
 
 ### Description
-Calculates Ez field from a half-wave dipole antenna at distance r<br/>
-Calculates VOC (V open circuit) from the incident field Ez on an identical receiving dipole antenna at distance r <br/>
-Calculates Pload (power delivered to a perfectly matched load) by the incident field Ez on an identical receiving dipole antenna at distance r <br/>
+Calculates Ez field from a half-wave dipole antenna at distance r.<br/>
+Calculates VOC (V open circuit) from the incident field Ez on an identical receiving dipole antenna at distance r. <br/>
+Calculates Pload (power delivered to a perfectly matched load) by the incident field Ez on an identical receiving dipole antenna at distance r. <br/>
 Calculates Prx (power received to a perfectly matched load) via Friis formula.
 
 ### Other features
-Calculates dipole length from input frequency for a quick antenna design<br/>
-Calculates dipole feed current Ia from input power<br/>
-Converts both Tx and Rx power to dbm for a quick link budget design<br/>
+Calculates dipole length from input frequency for a quick antenna design.<br/>
+Calculates dipole feed current Ia from input power.<br/>
+Converts both Tx and Rx power to dbm for a quick link budget design.<br/>
 Calculates the free space path loss for a quick link budget design. (this includes both Tx and Rx 2.15db gain)<br/>
-Computed results are displayed in engineering format<br/>
+Computed results are displayed in engineering format.<br/>
 
 ### Quick math
 First the following assumptions are made:
-* dipole antenna has a half-wave length meaning radiation resistance Rrad = 73.08 &#937;
-* Ez represents the electric field in Cartesian coordinates  and is identical with E&#952; with &#952;=90&#176; in spherical coordinates
-* VOC, Pload and Prx are calculated on an identical receiving dipole antenna and polarization at distance r
-* both Tx and Rx dipoles have a gain of 2.15db or 1.642
+* dipole antenna has a half-wave length meaning radiation resistance Rrad = 73.08 &#937;.
+* Ez represents the electric field in Cartesian coordinates  and is identical with E&#952; with &#952;=90&#176; in spherical coordinates.
+* VOC, Pload and Prx are calculated on an identical receiving dipole antenna and polarization at distance r.
+* both Tx and Rx dipoles have a gain of 2.15db or 1.642.
 
-Ez formula below contain the classic Ia current, space impedance and decreasing with distance r<br>
-The trigonometric terms are caused by the sinusoidal Ia current distribution on the antenna (doughnut shape)<br>
+Ez formula below contain the classic Ia current, space impedance and decreasing with distance r.<br>
+The trigonometric terms are caused by the sinusoidal Ia current distribution on the antenna (doughnut shape).<br>
 <img src="assets/images/half-dipole2.gif" width="370px">
 <br/>
 
-VOC formula below is the Ez*l but because the receiving antenna also has a sinusoidal current distribution it gets multiplied again by the trigonometric terms above<br/>
-This leads to the tan function squared because of the 2 identical dipoles<br/>
+VOC formula below is the Ez*l but because the receiving antenna also has a sinusoidal current distribution it gets multiplied again by the trigonometric terms above.<br/>
+This leads to the tan function squared because of the 2 identical dipoles.<br/>
 <img src="assets/images/half-dipole3.gif" width="320px">
 <br/>
 
-Pload formula below is constructed from converting to rms and perfectly matching the load to the antenna<br/>
+Pload formula below is constructed from converting to rms and perfectly matching the load to the antenna.<br/>
 <img src="assets/images/half-dipole4.gif" width="150px">
 <br/>
 
 **Verification 1**<br/>
-Friis formula below is use to verify all calculations above<br/>
-It takes into consideration both dipole's effective aperture area<br/>
+Friis formula below is use to verify all calculations above.<br/>
+It takes into consideration both dipole's effective aperture area.<br/>
+Given freq=2.4GHz, Ptx=36.54W, r=200m our calculator gives Pload=243nW. Using the Friis formula below we also get Prx=243nW.<br> 
 <img src="assets/images/half-dipole5.gif" width="210px">
 <br/>
 
 **Verification 2**<br/>
-CST studio was used to calculate the electric field for freq=2.4GHz, Ptx=36.54W, r=200m<br/>
-This resulted in 0.2989V/m (screenshot below) while our application returned 0.3V/m (see screenshot at the end of this file) which is pretty good for our sinusoidal current distribution approximation<br/>
+CST studio was used to calculate the electric field for freq=2.4GHz, Ptx=36.54W, r=200m.<br/>
+This resulted in 0.2989V/m (screenshot below) while our application returned 0.3V/m (see screenshot at the end of this file) which is pretty good for our sinusoidal current distribution approximation.<br/>
 ![](assets/images/cst.png)
 <br/>
 
 ### Usage
-Requires JDK 17<br/>
+Requires JDK 17.<br/>
 To run the project use the following command:<br/>
 ```
 ./gradlew clean run