energy_demand.scripts package

The scripts are necessary for all calculations outside the main energy_demand function.

Submodules

energy_demand.scripts.batch_commands_main module

energy_demand.scripts.cluster_execution module

energy_demand.scripts.cluster_execution.my_function(simulation_number)[source]

energy_demand.scripts.cluster_execution_paperI module

energy_demand.scripts.cluster_execution_paperI.my_function(simulation_number)[source]

energy_demand.scripts.cluster_execution_weather_scenarios module

energy_demand.scripts.cluster_execution_weather_scenarios.my_function(simulation_number)[source]

energy_demand.scripts.folder_size module

energy_demand.scripts.init_scripts module

energy_demand.scripts.s_LAD_MSOA module

energy_demand.scripts.s_disaggregation module

energy_demand.scripts.s_fuel_to_service module

energy_demand.scripts.s_generate_sigmoid module

Script to fit technology diffusion

This script calculates the three parameters of a sigmoid diffusion for every technology which is diffused and has a larger service fraction at the model end year

energy_demand.scripts.s_generate_sigmoid.calc_service_fuel_switched(fuel_switches, technologies, s_fueltype_by_p, s_tech_by_p, fuel_tech_p_by, switch_type)[source]

Calculate energy service demand percentages after fuel switches.

Parameters
  • fuel_switches (dict) – Fuel switches of a specific enduse

  • technologies (dict) – Technologies

  • s_fueltype_by_p (dict) – Service share per fueltype in base year

  • s_tech_by_p (dict) – Share of service demand per technology for base year

  • fuel_tech_p_by (dict) – Fuel shares for each technology of an enduse for base year

  • switch_type (str) – If either switch is for maximum theoretical switch of with defined switch until end year

Returns

s_tech_switched_p – Service in future year with added and substracted service demand for every technology

Return type

dict

Note

Assertion may be removed to increase speed

energy_demand.scripts.s_generate_sigmoid.calc_sigmoid_parameters(l_value, xdata, ydata, fit_assump_init=0.001, error_range=2e-05, number_of_iterations=1000)[source]

Calculate sigmoid parameters. Check if fitting is good enough.

Parameters
  • l_value (float) – Maximum upper level

  • xdata (array) – X data

  • ydata (array) – Y data

  • fit_assump_init (float) – Small value for correct sigmoid diffusion in case start value is equal to L

  • fit_crit_max (float) – Criteria to control and abort fit

  • fit_crit_min (float) – Criteria to control and abort fit (slope must be posititive)

  • error_range (float,default=0.00002) – Allowed fitting offset in percent

Note

error_range can be changed if the plotting is weird. If you increase chances are however higher that the fitting does not work anymore.

Returns

fit_parameter – Parameters (first position: midpoint, second position: slope)

Return type

array

energy_demand.scripts.s_generate_sigmoid.fit_sigmoid_diffusion(l_value, x_data, y_data, start_parameters, number_of_iterations=10000)[source]

Fit sigmoid curve based on two points on the diffusion curve

Parameters
  • l_value (float) – The sigmoids curve maximum value (max consumption)

  • x_data (array) – X coordinate of two points

  • y_data (array) – X coordinate of two points

  • number_of_iterations (int) – Number of iterations used for sigmoid fitting

Returns

popt – Fitting parameters (l_value, midpoint, steepness)

Return type

dict

Note

The Sigmoid is substacted - 2000 to allow for better fit with low values

Warning

It cannot fit a value starting from 0. Therefore, some initial penetration needs to be assumed (e.g. 0.001%) RuntimeWarning is ignored https://stackoverflow.com/questions/4359959/overflow-in-exp-in-scipy-numpy-in-python

energy_demand.scripts.s_generate_sigmoid.get_l_values(technologies, technologies_to_consider, regions=False)[source]

Get l values (Maximum shares of each technology) for all installed technologies

Parameters
  • technologies (dict) – Technologies

  • technologies_to_consider (list) – Technologies to consider

  • s_fueltype_by_p – Fraction of service per fueltype in base year

  • regions (dict) – Regions

Returns

l_values_sig – Sigmoid paramters

Return type

dict

energy_demand.scripts.s_generate_sigmoid.get_tech_installed(enduse, fuel_switches)[source]

Read out all technologies which are specifically switched to of a specific enduse

endusestr

enduse

fuel_switchesdict

All fuel switches where a share of a fuel of an enduse is switched to a specific technology

Returns

  • installed_tech (list) – List with all technologies where a fuel share is switched to

  • crit_fuel_switch (bool) – Criteria wheter swich is defined or not

energy_demand.scripts.s_generate_sigmoid.plotout_sigmoid_tech_diff(L_value, technology, xdata, ydata, fit_parameter, plot_crit=False, close_window_crit=True)[source]

Plot sigmoid diffusion

energy_demand.scripts.s_generate_sigmoid.tech_l_sigmoid(s_tech_switched_ey, enduse_fuel_switches, technologies, installed_tech, s_fueltype_by_p, s_tech_by_p, fuel_tech_p_by)[source]

Calculate L value (maximum possible theoretical market penetration) for every installed technology with maximum theoretical replacement share (calculate second sigmoid point).

Parameters
  • s_tech_switched_ey (dict) – Ey service tech

  • enduse_fuel_switches (dict) – Fuel switches of enduse

  • installed_tech (dict) – Installed technologies (as keys)

  • s_fueltype_by_p (dict) – Service share per fueltye of base year

  • s_tech_by_p (dict) – Percentage of service demands for every technology

  • fuel_tech_p_by (dict) – Fuel share per technology of base year

Returns

l_values_sig – L value for sigmoid diffusion of all technologies for which a switch is implemented

Return type

dict

energy_demand.scripts.s_generate_sigmoid.tech_sigmoid_parameters(yr_until_switched, switch_yr_start, technologies, l_values, s_tech_by_p, s_tech_switched_p, fit_assump_init=0.001, plot_sigmoid_diffusion=False)[source]

Calculate sigmoid diffusion parameters based on energy service demand in base year and projected future energy service demand. The future energy servie demand is calculated based on fuel switches.

Three potential sigmoid outputs are possible:

‘linear’: No sigmoid fitting possible because the

service in the future year is identical to the service in the base year

None: No sigmoid is fitted if the future

service share is zero.

fit_parameters Sigmoid diffusion parameters

Because the sigmoid fitting does not work if the initial and end values are zero, small approximatie values fit_assump_init are inserted to allow the function ‘calc_sigmoid_parameters’ to fit.

Parameters
  • yr_until_switched (int) – Year until switch is fully realised

  • switch_yr_start (int) – Start year of story in narrative

  • technologies (dict) – technologies

  • l_values (dict) – L values for maximum possible diffusion of technologies

  • s_tech_by_p (dict) – Energy service demand for base year (1. sigmoid point)

  • s_tech_switched_p (dict) – Service demand after fuelswitch

  • fit_assump_init (float) – Approximation helping small number to allow fit

  • plot_sigmoid_diffusion (bool,default=True) – Criteria whether sigmoid are plotted

Returns

  • sig_params (dict) – Sigmoid diffusion parameters to read energy service demand percentage (not fuel!)

  • Info

  • —–

    rounding_accuracy This rounds the by and ey service share

    to the defined number of digits. Because of rounding error, there might be very small differences in percentual service demand.

energy_demand.scripts.s_greate_NISMOD1_data module

energy_demand.scripts.s_post_installation module

energy_demand.scripts.s_prepare_weather_data module

energy_demand.scripts.s_rs_raw_shapes module

energy_demand.scripts.s_scenario_param module

energy_demand.scripts.s_ss_raw_shapes module

energy_demand.scripts.s_write_dummy_data module