diff --git a/ElectromagneticScattering/README.md b/ElectromagneticScattering/README.md
index 16308635814cc8a029eb93a8bd5b98725d0abf65..11e3ffae785f28bc8233454a45ba39316f2e9971 100644
--- a/ElectromagneticScattering/README.md
+++ b/ElectromagneticScattering/README.md
@@ -1,7 +1,7 @@
 ONELAB models for 3D scattering problems in nanophotonics.
 
 ## Quick Install
-Open `scattererTmatrix.pro` with your precompiled version of [ONELAB](https://onelab.info) to compute the T-matrix of an isolated scatterer of arbitrary shape as described in [1].
+Open `scattererTmatrix.pro` with e.g. your precompiled version of [ONELAB](https://onelab.info) to compute the T-matrix of an isolated scatterer of arbitrary shape as described in [1].
 
 ## Synopsis
 This project contains [ONELAB](https://onelab.info) models for solving various 3D electromagnetic problems on an isolated arbitrary object:
@@ -30,12 +30,15 @@ The model `scattering.pro` requires GetDP with python support (see install notes
 
 Open `scattererTmatrix.pro` or `scattering.pro` with Gmsh.
 
-The model `scattererTmatrix.pro` computes the scattering (T-)matrix solely and does not require any Python support from GetDP. It is fast since it :
+The model `scattererTmatrix.pro` computes the scattering (T-)matrix solely and does not require any Python support from GetDP. It is quite fast and accurate since it :
 * features spherical PML
-* re-uses the factorization for each new input harmonic
+* features curved elements + high order Webb elements
+* re-uses the factorization for each new input harmonic (i.e. one single inversion to get the T-matrix)
 * computes the coefficients by integration within GetDP 
 
-The default parameters in `scattering.pro` are set to compute the T-matrix of a sphere. It retrieves the results from [1].
+The default parameters in `scattering.pro` are also set to compute the T-matrix of a sphere.
+
+Both models retrieve the results from [1].
 
 ## Authors
 Guillaume Demésy and Brian Stout