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aeromaps.models.impacts.generic_energy_model.top_down.cost

cost

===== Module to compute pathway MFSP and investments using the top-down techno-economic model.

TopDownCost

TopDownCost(name, configuration_data, resources_data, processes_data, *args, **kwargs)

Bases: AeroMAPSModel

Top down unit cost model for energy carriers. It subtracts subsidies from user provided mfsp and adds taxes to it.

Parameters:

Name Type Description Default
name str

Name of the model instance ('f"{pathway_name}_top_down_unit_cost"' by default).

required
configuration_data dict

Configuration data for the energy pathway from the config file.

required
resources_data dict

Configuration data for the energy resources from the config file.

required
processes_data dict

Configuration data for the energy processes from the config file.

required

Attributes:

Name Type Description
input_names dict

Dictionary of input variable names populated at model initialisation before MDA chain creation.

output_names dict

Dictionary of output variable names populated at model initialisation before MDA chain creation.

Source code in aeromaps/models/impacts/generic_energy_model/top_down/cost.py
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def __init__(
    self,
    name,
    configuration_data,
    resources_data,
    processes_data,
    *args,
    **kwargs,
):
    super().__init__(
        name=name,
        model_type="custom",
        # inputs/outputs are defined in __init__ rather than auto generated from compute() signature
        *args,
        **kwargs,
    )
    # Get the name of the pathway
    self.pathway_name = configuration_data["name"]

    # Get the inputs from the configuration file: two options
    # 1. All inputs of a certain category in the yaml file
    for key, val in configuration_data.get("inputs").get("economics", {}).items():
        # TODO initialize with zeros instead of actual val?
        self.input_names[key] = val
    for key, val in configuration_data.get("inputs").get("technical", {}).items():
        # TODO initialize with zeros instead of actual val? How to better get rid of unnecessary variables
        if (
            key == f"{self.pathway_name}_resource_names"
            or key == f"{self.pathway_name}_processes_names"
        ):
            pass  # avoid having strings as variable in gemseo, not needed as variables
        else:
            self.input_names[key] = val

    # 2. Set individual inputs, coming either from other models or from the yaml as well
    self.input_names.update(
        {
            "carbon_tax": pd.Series([0.0]),
            f"{self.pathway_name}_mean_co2_emission_factor": pd.Series([0.0]),
        }
    )

    # 3. Getting resources is a bit more complex as we need to get necessary resources for the pathway
    self.resource_keys = (
        configuration_data.get("inputs")
        .get("technical", {})
        .get(f"{self.pathway_name}_resource_names", [])
    ).copy()

    for key in self.resource_keys:
        # Outputs.
        self.output_names[f"{self.pathway_name}_excluding_processes_{key}_mean_unit_cost"] = (
            pd.Series([0.0])
        )
        self.output_names[f"{self.pathway_name}_excluding_processes_{key}_mean_unit_tax"] = (
            pd.Series([0.0])
        )
        self.output_names[
            f"{self.pathway_name}_excluding_processes_{key}_mean_unit_subsidy"
        ] = pd.Series([0.0])

    self.process_keys = (
        configuration_data.get("inputs")
        .get("technical", {})
        .get(f"{self.pathway_name}_processes_names", [])
    ).copy()

    for process_key in self.process_keys:
        for key, val in processes_data[process_key].get("inputs").get("technical", {}).items():
            if key == f"{process_key}_resource_names":
                resources = (
                    processes_data[process_key]
                    .get("inputs")
                    .get("technical", {})
                    .get(f"{process_key}_resource_names", [])
                )
                self.resource_keys.extend(resources)
                for resource in resources:
                    self.output_names[
                        f"{self.pathway_name}_{process_key}_{resource}_mean_unit_cost"
                    ] = pd.Series([0.0])
                    self.output_names[
                        f"{self.pathway_name}_{process_key}_{resource}_mean_unit_tax"
                    ] = pd.Series([0.0])
                    self.output_names[
                        f"{self.pathway_name}_{process_key}_{resource}_mean_unit_subsidy"
                    ] = pd.Series([0.0])
            else:
                # TODO initialize with zeros instead of actual val?
                self.input_names[key] = val

        for key, val in processes_data[process_key].get("inputs").get("economics", {}).items():
            # TODO initialize with zeros instead of actual val?
            self.input_names[key] = val
        self.output_names[
            f"{self.pathway_name}_{process_key}_mean_unit_cost_without_resources"
        ] = pd.Series([0.0])
        self.output_names[
            f"{self.pathway_name}_{process_key}_mean_unit_tax_without_resources"
        ] = pd.Series([0.0])
        self.output_names[
            f"{self.pathway_name}_{process_key}_mean_unit_subsidy_without_resources"
        ] = pd.Series([0.0])

    # Getting unique resources
    self.resource_keys = list(set(self.resource_keys))

    # Adding resources-linked inputs and outputs
    # TODO specify eco/cost as for process
    for key in self.resource_keys:
        if f"{key}_cost" in resources_data[key]["specifications"]:
            self.input_names[f"{key}_cost"] = pd.Series([0.0])
        if f"{key}_subsidy" in resources_data[key]["specifications"]:
            self.input_names[f"{key}_subsidy"] = pd.Series([0.0])
        if f"{key}_tax" in resources_data[key]["specifications"]:
            self.input_names[f"{key}_tax"] = pd.Series([0.0])
        # Outputs.

    # Fill in the expected outputs with names from the compute method, initialized with NaN
    self.output_names.update(
        {
            f"{self.pathway_name}_net_mfsp_without_carbon_tax": pd.Series([0.0]),
            f"{self.pathway_name}_net_mfsp": pd.Series([0.0]),
            f"{self.pathway_name}_mean_mfsp": pd.Series([0.0]),
            f"{self.pathway_name}_mean_unit_tax": pd.Series([0.0]),
            f"{self.pathway_name}_mean_unit_carbon_tax": pd.Series([0.0]),
            f"{self.pathway_name}_mean_unit_subsidy": pd.Series([0.0]),
        }
    )

compute

compute(input_data)

Compute the top-down cost for the energy pathway.

Parameters:

Name Type Description Default
input_data

Dictionary containing all input data required for the computation, completed at model instantiation with information from yaml files and outputs of other models.

required

Returns:

Type Description
output_data

Dictionary containing all output data resulting from the computation. Contains outputs defined during model instantiation.

Source code in aeromaps/models/impacts/generic_energy_model/top_down/cost.py
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def compute(self, input_data) -> dict:
    """
    Compute the top-down cost for the energy pathway.

    Parameters
    ----------
    input_data
        Dictionary containing all input data required for the computation, completed at model instantiation with information from yaml files and outputs of other models.

    Returns
    -------
    output_data
        Dictionary containing all output data resulting from the computation. Contains outputs defined during model instantiation.
    """
    # Get inputs from the configuration file
    # Mandatory inputs
    output_data = {}

    optional_null_series = pd.Series(
        0.0, index=range(self.historic_start_year, self.end_year + 1)
    )

    # Usage of get/ brackets -> get usefull to set null values to optional inputs
    pathway_mfsp_without_resource = input_data.get(
        f"{self.pathway_name}_mean_mfsp_without_resource", optional_null_series.copy()
    )
    pathway_mfsp = pathway_mfsp_without_resource.copy()

    pathway_unit_subsidy_without_resource = input_data.get(
        f"{self.pathway_name}_mean_unit_subsidy_without_resource", optional_null_series.copy()
    )
    pathway_unit_subsidy = pathway_unit_subsidy_without_resource.copy()

    pathway_unit_tax_without_resource = input_data.get(
        f"{self.pathway_name}_mean_unit_tax_without_resource", optional_null_series.copy()
    )
    pathway_unit_tax = pathway_unit_tax_without_resource.copy()

    for key in self.resource_keys:
        # 1 ) --> pathway gets directly a resource
        specific_consumption = input_data.get(
            f"{self.pathway_name}_resource_specific_consumption_{key}", None
        )
        if specific_consumption is not None:
            mfsp_ressource = (
                input_data.get(f"{key}_cost", optional_null_series.copy())
                * specific_consumption
            )
            # usage of add to avoid getting a nan if one of the series is not defined intentionally
            pathway_mfsp = pathway_mfsp.add(mfsp_ressource, fill_value=0)

            output_data[f"{self.pathway_name}_excluding_processes_{key}_mean_unit_cost"] = (
                mfsp_ressource
            )

            subsidy_ressource = (
                input_data.get(f"{key}_subsidy", optional_null_series.copy())
                * specific_consumption
            )
            pathway_unit_subsidy = pathway_unit_subsidy.add(subsidy_ressource, fill_value=0)
            output_data[f"{self.pathway_name}_excluding_processes_{key}_mean_unit_subsidy"] = (
                subsidy_ressource
            )

            tax_ressource = (
                input_data.get(f"{key}_tax", optional_null_series.copy()) * specific_consumption
            )
            pathway_unit_tax = pathway_unit_tax.add(tax_ressource, fill_value=0)
            output_data[f"{self.pathway_name}_excluding_processes_{key}_mean_unit_tax"] = (
                tax_ressource
            )

        # 2 ) --> pathway gets a process that uses a resource
        for process_key in self.process_keys:
            specific_consumption = input_data.get(
                f"{process_key}_resource_specific_consumption_{key}"
            )
            if specific_consumption is not None:
                mfsp_ressource = (
                    input_data.get(f"{key}_cost", optional_null_series.copy())
                    * specific_consumption
                )
                # usage of add to avoid getting a nan if one of the series is not defined intentionally
                pathway_mfsp = pathway_mfsp.add(mfsp_ressource, fill_value=0)

                output_data[f"{self.pathway_name}_{process_key}_{key}_mean_unit_cost"] = (
                    mfsp_ressource
                )

                subsidy_ressource = (
                    input_data.get(f"{key}_subsidy", optional_null_series.copy())
                    * specific_consumption
                )
                pathway_unit_subsidy = pathway_unit_subsidy.add(subsidy_ressource, fill_value=0)
                output_data[f"{self.pathway_name}_{process_key}_{key}_mean_unit_subsidy"] = (
                    subsidy_ressource
                )

                tax_ressource = (
                    input_data.get(f"{key}_tax", optional_null_series.copy())
                    * specific_consumption
                )
                pathway_unit_tax = pathway_unit_tax.add(tax_ressource, fill_value=0)
                output_data[f"{self.pathway_name}_{process_key}_{key}_mean_unit_tax"] = (
                    tax_ressource
                )

    # 3 ) --> pathway needs process cost without resources
    for process_key in self.process_keys:
        mfsp_process = input_data.get(
            f"{process_key}_mean_mfsp_without_resource", optional_null_series.copy()
        )
        pathway_mfsp = pathway_mfsp.add(mfsp_process, fill_value=0)
        output_data[f"{self.pathway_name}_{process_key}_mean_unit_cost_without_resources"] = (
            mfsp_process
        )

        subsidy_process = input_data.get(
            f"{process_key}_mean_unit_subsidy_without_resources", optional_null_series.copy()
        )
        pathway_unit_subsidy = pathway_unit_subsidy.add(subsidy_process, fill_value=0)
        output_data[
            f"{self.pathway_name}_{process_key}_mean_unit_subsidy_without_resources"
        ] = subsidy_process

        tax_process = input_data.get(
            f"{process_key}_mean_unit_tax_without_resources", optional_null_series.copy()
        )
        pathway_unit_tax = pathway_unit_tax.add(tax_process, fill_value=0)
        output_data[f"{self.pathway_name}_{process_key}_mean_unit_tax_without_resources"] = (
            tax_process
        )

    # Avoiding adding nans if subsidies and taxes defined for a shorter period of time than the mfsp
    pathway_net_mfsp_without_carbon_tax = pathway_mfsp.add(
        -pathway_unit_subsidy, fill_value=0
    ).add(pathway_unit_tax, fill_value=0)

    # Handle possible differential carbon_tax
    if f"{self.pathway_name}_carbon_tax" in input_data:
        carbon_tax = (
            input_data[f"{self.pathway_name}_carbon_tax"] / 1000
        )  # converted to €/kgCO2
    else:
        carbon_tax = input_data["carbon_tax"] / 1000  # converted to €/kgCO2

    emission_factor = (
        input_data[f"{self.pathway_name}_mean_co2_emission_factor"] / 1000
    )  # converted to kgCO2/MJ
    pathway_unit_carbon_tax = carbon_tax * emission_factor

    pathway_net_mfsp = pathway_net_mfsp_without_carbon_tax.add(
        pathway_unit_carbon_tax, fill_value=0
    )

    output_data.update(
        {
            f"{self.pathway_name}_net_mfsp_without_carbon_tax": pathway_net_mfsp_without_carbon_tax,
            f"{self.pathway_name}_net_mfsp": pathway_net_mfsp,
            f"{self.pathway_name}_mean_mfsp": pathway_mfsp,
            f"{self.pathway_name}_mean_unit_tax": pathway_unit_tax,
            f"{self.pathway_name}_mean_unit_carbon_tax": pathway_unit_carbon_tax,
            f"{self.pathway_name}_mean_unit_subsidy": pathway_unit_subsidy,
        }
    )

    # Store the results in the df
    self._store_outputs(output_data)

    return output_data