first points to review.

README.md

@@ -1,14 +1,14 @@
 # TCode
 
 ## What is it?
-TCode is a C++14 compliant application to simulate the response of solid state sensors in massively parallel platforms on Linux systems. TCode is implemented on top of [Hydra](https://github.com/MultithreadCorner/Hydra) and as such, it can run on OpenMP, CUDA and TBB compatible devices. 
+TCode is a C++14 compliant application to simulate the response of solid state sensors in massively parallel platforms on Linux systems. TCode is implemented on top of [Hydra](https://github.com/MultithreadCorner/Hydra) and as such, it can run in parallel on OpenMP, CUDA and TBB compatible devices or sequentialy in single threaded enviroments. 
 TCode is still in its alpha version and the repository it is taking shape, for the moment we focused on getting raw performance and will make more stable and user friendly release in the near future.
 
 ## How it works
-TCode uses external 3D maps of electric fields, carrier mobilities and weighting field and energy deposit to simulate the response in current of solid state sensors. The motion of the individual carriers produced in the initial deposit is determined using a 4th other Runge-Kutta using the electric field and the mobilities and assuming that the carriers always move at drift velocity. At each time interval the current induced in the electrod is calculated from the carriers velocity using the corresponding weighting field, according to the [Shockley](https://aip.scitation.org/doi/10.1063/1.1710367)-[Ramo](https://ieeexplore.ieee.org/document/1686997) theorem. The output is stored to ROOT files, several level of output detail are available, from the simple current vs time plot to the complete information about the position of the carriers at each time step.
+TCode uses external 3D maps of electric fields, carrier mobilities and weighting field and energy deposit to simulate the response in current of solid state sensors. The motion of the individual carriers produced in the initial deposit is determined using a 4th oder Runge-Kutta method **[add reference]** using the electric field and the mobilities and assuming that the carriers always move at drift velocity. At regular times intervals, the current induced in the electron is calculated from the carriers velocity using the corresponding weighting field, according to the [Shockley](https://aip.scitation.org/doi/10.1063/1.1710367)-[Ramo](https://ieeexplore.ieee.org/document/1686997) theorem. The output is stored to ROOT files **(consider supporting flat text files as well )**, several level of output detail are available, from the simple current vs time plot to the complete information about the position of the carriers at each time step.
 
 ## Dependencies
-TCode depends on [ROOT >= v.6.14](https://github.com/root-project/root), [libconfig >= v1.5](https://hyperrealm.github.io/libconfig/), [TCLAP >= v1.2.1](http://tclap.sourceforge.net/) and optionally  [CUDA >= 10.0](https://developer.nvidia.com/cuda-toolkit) (needed for nVidia GPUs).
+TCode depends on [ROOT >= v.6.14](https://github.com/root-project/root), [libconfig >= v1.5](https://hyperrealm.github.io/libconfig/), [TCLAP >= v1.2.1](http://tclap.sourceforge.net/) and optionally  [CUDA >= 10.0](https://developer.nvidia.com/cuda-toolkit) (needed for nVidia GPUs) and TBB. **Perche cuda 10+ e non 8+?**
 
 ## Manual
 IN PREPARATION

examples/example_config.cfg

@@ -46,7 +46,7 @@ InputData:
         #number of time steps in the simulation, integer. 
 	#NEEDED
         #it can be an array (e.g. [400,600]). In this case simulations will be performed with all the values
-        steps = 100;
+        steps = 600;
 
         #time step in seconds, double. NEEDED
         #it can be an array (e.g. [1e-11,1e-13,1e-14]). In this case simulations will be performed with all the values
@@ -108,7 +108,7 @@ InputData:
         #it can be an array
         particles = 20000; #it cannot be -1 in this case since no input file is provided
 
-        T=0.;
+        T=300.;
 
         Xshift = 2.;
         Yshift = 2.;