slide::paperCode::paper2022 Namespace Reference

Functions
void	Vequalisation_Rdc (double Rdc)
void	Vequalisation ()
void	thermalModel ()
void	degrade (auto &&su)
void	degradation_1cell ()
void	degradation_electricalModel ()
void	degradation_variations ()
void	degradation_thermal ()

Function Documentation

degradation_1cell()

void slide::paperCode::paper2022::degradation_1cell

(

)

< ensure the global settings are appropriately

< Make one cell with standard parameters//!<Degradation settings

< Kinetic SEI + porosity + Dai/Laresgoiti LAM

< add model 4.

< add model 0.

< cell-to-cell variation parameters are 0

< Wrap the cell in a series-module

< single-threaded, conventional coolsystem (std::string IDi, double Ti, bool print, bool pari, int Ncells, int coolControl, int cooltype)

< Wrap the module in a Battery and set number of series and parallel

< call the degradation function

< #TODO

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degradation_electricalModel()

void slide::paperCode::paper2022::degradation_electricalModel

(

)

< ensure the global settings are appropriately

< Get the battery from makeBattery

< just for naming since there is no thermal model

< todo std::shared_ptr<StorageUnit> su = makeBattery_EPFL(capspread, Rcellspread, degratespread, contactR,coolControl,IDaddition,1);

< degrade the battery todo degrade(su);

< Sensitivty with 10 times higher Rcontact

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degradation_thermal()

void slide::paperCode::paper2022::degradation_thermal

(

)

< ensure the global settings are appropriately

< all three spread

< just for naming since there is no thermal model

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degradation_variations()

void slide::paperCode::paper2022::degradation_variations

(

)

< ensure the global settings are appropriately

< resistance spread

< just for naming since there is no thermal model

< capacity spread

< just for naming since there is no thermal model

< degradation rate spread

< just for naming since there is no thermal model

< all three spread

< just for naming since there is no thermal model

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degrade()

void slide::paperCode::paper2022::degrade

(

auto &&

su

)

< standard settings for degradation simulation

< do a checkup ever 250 cycles

< balance every 10 cycles

< Make the procedure

< rebalance to 3.1V

< how often to store data (if 0, nothing is stored, not even usage stats)

< Simulate the cycle ageing

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thermalModel()

void slide::paperCode::paper2022::thermalModel

(

)

< calculate the cell temperatures in a small module use exactly the same code as for V equalisation, but with Rcontact = 0 and the global setting correctly

< ensure the global settings are appropriately

< Make the module with 0 contact resistance

< normal distribution with mean 1 and std 0.4%

< normal distribution with mean 1 and std 2.5%

< normal distribution with mean 1 and std 10%

< add model 4.

< add model 0.

< one with half the capacity and double the resistance and 10% more degradation

< print, no multithread, coolcontrol 1, HVAC coolsystem

< Make the cycler

< store data every 2 seconds (or every dt)

< do a CC charge-discharge

< CC discharge

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Vequalisation()

void slide::paperCode::paper2022::Vequalisation

(

)

< ensure the global settings are appropriately

< Simulate with no contact R and with a value of 1 mOhm

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Vequalisation_Rdc()

void slide::paperCode::paper2022::Vequalisation_Rdc

(

double

Rdc

)

< Make the module with 0 contact resistance

< normal distribution with mean 1 and std 0.4%

< normal distribution with mean 1 and std 2.5%

< normal distribution with mean 1 and std 10%

< add model 4.

< add model 0.

< one with half the capacity and double the resistance and 10% more degradation

< print, no multithread, coolcontrol 1, HVAC coolsystem

< Make the cycler

< #TODO we may make this shared pointer. Otherwise it will cause problems. Or unique.

< store data every 2 seconds (or every dt)

< do a CC charge-discharge

< CC discharge

< write the data

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