<commit_before>---
en:
  input_elements:
    share_of_industry_steel_captured_co2:
      title: Steel industry
      description: |
        What share of capturable CO<sub>2</sub> emissions in the steel industry will be captured in
        your scenario? The amount of CO<sub>2</sub> that can be captured depends on the size of the
        steel industry and the chosen steel production technology in your scenario. You can change
        this in <a href="/scenario/demand/industry/steel">the Demand → Industry → Steel section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.<br/><br/> In the link below, the specs for blastfurnace capture are displayed.
    share_of_industry_chemicals_refineries_captured_co2:
      title: Refinery industry
      description: |
        What share of capturable CO<sub>2</sub> emissions in the refinery industry will be captured in
        your scenario? The amount of CO<sub>2</sub> that can be captured depends on the size of the
        refinery industry in your scenario. You can change this in <a
        href="/scenario/demand/industry/refineries">the Demand → Industry → Refinery section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.<br/><br/>
    share_of_industry_chemicals_fertilizers_captured_processes_co2:
      title: Fertilizer industry (process)
      description: |
        What share of capturable process emissions in the fertilizers industry will be captured in
        your scenario? The steam methane reforming process yields high purity CO<sub>2</sub> streams
        that are relatively simple to capture. The costs and energy use of capture are low compared
        to capture of combustion emissions.<br/><br/> The amount of CO<sub>2</sub> that can be
        captured depends on the size of the fertilizers industry in your scenario and whether
        hydrogen is produced 'on-site' or imported directly. You can change this in
        <a href="/scenario/demand/industry/fertilizers">the Demand → Industry → Fertlilizers section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
        <br/><br/>
        In some areas, CO<sub>2</sub> capture of process emissions already takes place today. The
        captured CO<sub>2</sub> is for example used for the production of urea or supplied to the
        food industry for the production of soft drinks and beer.
    share_of_industry_chemicals_fertilizers_captured_combustion_co2:
      title: Fertilizer industry (combustion)
      description: |
        What share of capturable combustion emissions in the fertilizers industry will be captured
        in your scenario? Capture of combustion emissions is relatively expensive and energy
        intensive because the CO<sub>2</sub> has to be separated from other molecules found in the
        flue gas.<br/><br/> The amount of CO<sub>2</sub> that can be captured depends on the size
        and efficiency of the fertilizers industry in your scenario. You can change this in
        <a href="/scenario/demand/industry/fertilizers">the Demand → Industry → Fertlilizers section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
    share_of_industry_chemical_other_captured_co2:
      title: Chemicals industry
      description: |
        What share of capturable CO<sub>2</sub> emissions in the chemicals industry will be captured in
        your scenario? The amount of CO<sub>2</sub> that can be captured depends on the size of the
        chemicals industry in your scenario. You can change this in <a
        href="/scenario/demand/industry/chemicals">the Demand → Industry → Chemicals section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.<br/><br/>
    share_of_industry_other_paper_captured_co2:
      title: Paper industry
      description: |
        What share of capturable combustion emissions in the paper industry will be captured in your
        scenario? Capture of combustion emissions is relatively expensive and energy intensive
        because the CO<sub>2</sub> has to be separated from other molecules found in the flue
        gas.<br/><br/> The amount of CO<sub>2</sub> that can be captured depends on the size and
        efficiency of the paper industry in your scenario. You can change this in
        <a href="/scenario/demand/industry/paper">the Demand → Industry → Paper section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
    share_of_industry_other_food_captured_co2:
      title: Food industry
      description: |
        What share of capturable combustion emissions in the food industry will be captured in your
        scenario? Capture of combustion emissions is relatively expensive and energy intensive
        because the CO<sub>2</sub> has to be separated from other molecules found in the flue
        gas.<br/><br/> The amount of CO<sub>2</sub> that can be captured depends on the size and
        efficiency of the food industry in your scenario. You can change this in
        <a href="/scenario/demand/industry/food">the Demand → Industry → Food section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
    share_of_energy_power_ultra_supercritical_ccs_coal:
      title: Pulverised coal
      description: |
        What share of installed pulverised coal capacity will be equipped with a CO<sub>2</sub>
        capture unit? How much CO<sub>2</sub> is captured depends on the number of full load hours
        of these power plants in your scenario. This is influenced by electricity demand, other
        installed power generation technologies and commodity prices.<br/><br/> The amount of
        installed pulverised coal capacity can be set in
        <a href="/scenario/supply/electricity/coal-plants">the Supply → Electricity → Coal plants section</a>.
        <br/><br/>
        If <a href="/scenario/supply/biomass/biocoal-and-bio-oil-in-energy-plants">bio coal</a> is
        used, capture of CO<sub>2</sub> emissions could lead to so-called 'negative' emissions. You
        can find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
    share_of_energy_power_combined_cycle_ccs_coal:
      title: Coal IGCC
      description: |
        What share of installed coal IGCC capacity will be equipped with a CO<sub>2</sub> capture
        unit? How much CO<sub>2</sub> is captured depends on the number of full load hours of these
        power plants in your scenario. This is influenced by electricity demand, other installed
        power generation technologies and commodity prices.<br/><br/> The amount of installed IGCC
        coal capacity can be set in
        <a href="/scenario/supply/electricity/coal-plants">the Supply → Electricity → Coal plants section</a>.
        <br/><br/>
        If <a href="/scenario/supply/biomass/biocoal-and-bio-oil-in-energy-plants">bio coal</a> is
        used, capture of CO<sub>2</sub> emissions could lead to so-called 'negative' emissions. You
        can find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
    share_of_energy_power_ultra_supercritical_oxyfuel_ccs_lignite:
      title: Lignite oxyfuel
      description: |
        What share of installed coal lignite oxyfuel capacity will be equipped with a CO<sub>2</sub>
        capture unit? How much CO<sub>2</sub> is captured depends on the number of full load hours
        of these power plants in your scenario. This is influenced by electricity demand, other
        installed power generation technologies and commodity prices.
        <br/><br/>
        The amount of installed lignite oxyfuel capacity can be set in
        <a href="/scenario/supply/electricity/coal-plants">the Supply → Electricity → Coal plants section</a>.
    share_of_energy_power_combined_cycle_ccs_network_gas:
      title: Gas CCGT
      description: |
        What share of installed gas CCGT capacity will be equipped with a CO<sub>2</sub> capture
        unit? How much CO<sub>2</sub> is captured depends on the number of full load hours of these
        power plants in your scenario. This is influenced by electricity demand, other installed
        power generation technologies and commodity prices.<br/><br/> The amount of installed gas
        CCGT capacity can be set in
        <a href="/scenario/supply/electricity/gas-plants">the Supply → Electricity → Gas plants section</a>.
        <br/><br/>
        If <a href="/scenario/supply/biomass/green-gas-in-gas-network">green gas</a> is used,
        capture of CO<sub>2</sub> emissions could lead to so-called 'negative' emissions. You can
        find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
    share_of_energy_hydrogen_biomass_gasification_ccs:
      title: Biomass gasification
      description: |
        What share of installed biomass gasification capacity for hydrogen production will be
        equipped with a CO<sub>2</sub> capture unit? Because biomass emissions are considered to be
        'short cycle' emissions, capturing these emissions could lead to so-called 'negative'
        emissions. You can find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
        <br/><br/>
        The amount of installed biomass gasification plants can be set in
        <a href="/scenario/supply/hydrogen/hydrogen-production">the Supply → Hydrogen → Hydrogen
        production section</a>.
    share_of_energy_hydrogen_steam_methane_reformer_ccs:
      title: Steam methane reforming
      description: |
        What share of installed steam methane reforming capacity for hydrogen production will be
        equipped with a CO<sub>2</sub> capture unit? The amount of installed steam methane reforming
        plants can be set in
        <a href="/scenario/supply/hydrogen/hydrogen-production">the Supply → Hydrogen → Hydrogen production section</a>.
        <br/><br/>
    demand_of_molecules_direct_air_capture_co2:
      title: Direct Air Capture (DAC)
      description: |
        This slider sets the installed capacity of Direct Air Capture plants. Direct Air Capture is
        a process of capturing CO<sub>2</sub> directly from the ambient air using electricity. If
        the electricity used is renewable, storing the captured CO<sub>2</sub> can lead to a net
        decrease in atmospheric CO<sub>2</sub> levels ('negative emissions'). The captured
        CO<sub>2</sub> can also be used for the production of carbon neutral fuels.<br/><br/> You
        can explore these options in
        <a href="/scenario/supply/ccus/utilisation-and-storage-of-co2">the Supply → CCUS → Utilisation and Storage section</a>.
        <br/><br/>
        Direct Air Capture is a promising technology to bring down global CO<sub>2</sub> levels in
        the atmosphere. However, it is also an energy intensive and (at this moment) expensive process.
        Since CO<sub>2</sub> in the
        ambient air is 'available' everywhere in the world, DAC capacity is likely to be installed
        in areas that will have very low (renewable) power costs.
    demand_of_molecules_offshore_sequestration_co2:
      title: Offshore storage
      description: |
        This slider sets the amount of CO<sub>2</sub> <i>per year</i> that is used for long-term storage offshore.
        For example saline acquifers and aging oil or gas fields can be used for this
        purpose.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> storage on total
        emissions, energy use and costs.
        <br /><br />
        The maximum of this slider varies per region in the ETM and is based on public research.
        It is assumed that the maximum storage value per year can be sustained for a period of 40 years.
        Please note: For some regions, no data could be found on storage potentials. An overview of the
        research used can be found on
        <a href="https://github.com/quintel/etdataset-public/blob/master/source_analyses/eu/2015/11_area/11_ccs_offshore_storage_potential_per_year.xls">
        ETDataset</a><br/>.
    output_of_energy_production_synthetic_kerosene:
      title: Synthetic kerosene
      description: |<commit_msg>Minor locales fix with redundant line break<commit_after>---
en:
  input_elements:
    share_of_industry_steel_captured_co2:
      title: Steel industry
      description: |
        What share of capturable CO<sub>2</sub> emissions in the steel industry will be captured in
        your scenario? The amount of CO<sub>2</sub> that can be captured depends on the size of the
        steel industry and the chosen steel production technology in your scenario. You can change
        this in <a href="/scenario/demand/industry/steel">the Demand → Industry → Steel section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.<br/><br/> In the link below, the specs for blastfurnace capture are displayed.
    share_of_industry_chemicals_refineries_captured_co2:
      title: Refinery industry
      description: |
        What share of capturable CO<sub>2</sub> emissions in the refinery industry will be captured in
        your scenario? The amount of CO<sub>2</sub> that can be captured depends on the size of the
        refinery industry in your scenario. You can change this in <a
        href="/scenario/demand/industry/refineries">the Demand → Industry → Refinery section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.<br/><br/>
    share_of_industry_chemicals_fertilizers_captured_processes_co2:
      title: Fertilizer industry (process)
      description: |
        What share of capturable process emissions in the fertilizers industry will be captured in
        your scenario? The steam methane reforming process yields high purity CO<sub>2</sub> streams
        that are relatively simple to capture. The costs and energy use of capture are low compared
        to capture of combustion emissions.<br/><br/> The amount of CO<sub>2</sub> that can be
        captured depends on the size of the fertilizers industry in your scenario and whether
        hydrogen is produced 'on-site' or imported directly. You can change this in
        <a href="/scenario/demand/industry/fertilizers">the Demand → Industry → Fertlilizers section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
        <br/><br/>
        In some areas, CO<sub>2</sub> capture of process emissions already takes place today. The
        captured CO<sub>2</sub> is for example used for the production of urea or supplied to the
        food industry for the production of soft drinks and beer.
    share_of_industry_chemicals_fertilizers_captured_combustion_co2:
      title: Fertilizer industry (combustion)
      description: |
        What share of capturable combustion emissions in the fertilizers industry will be captured
        in your scenario? Capture of combustion emissions is relatively expensive and energy
        intensive because the CO<sub>2</sub> has to be separated from other molecules found in the
        flue gas.<br/><br/> The amount of CO<sub>2</sub> that can be captured depends on the size
        and efficiency of the fertilizers industry in your scenario. You can change this in
        <a href="/scenario/demand/industry/fertilizers">the Demand → Industry → Fertlilizers section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
    share_of_industry_chemical_other_captured_co2:
      title: Chemicals industry
      description: |
        What share of capturable CO<sub>2</sub> emissions in the chemicals industry will be captured in
        your scenario? The amount of CO<sub>2</sub> that can be captured depends on the size of the
        chemicals industry in your scenario. You can change this in <a
        href="/scenario/demand/industry/chemicals">the Demand → Industry → Chemicals section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.<br/><br/>
    share_of_industry_other_paper_captured_co2:
      title: Paper industry
      description: |
        What share of capturable combustion emissions in the paper industry will be captured in your
        scenario? Capture of combustion emissions is relatively expensive and energy intensive
        because the CO<sub>2</sub> has to be separated from other molecules found in the flue
        gas.<br/><br/> The amount of CO<sub>2</sub> that can be captured depends on the size and
        efficiency of the paper industry in your scenario. You can change this in
        <a href="/scenario/demand/industry/paper">the Demand → Industry → Paper section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
    share_of_industry_other_food_captured_co2:
      title: Food industry
      description: |
        What share of capturable combustion emissions in the food industry will be captured in your
        scenario? Capture of combustion emissions is relatively expensive and energy intensive
        because the CO<sub>2</sub> has to be separated from other molecules found in the flue
        gas.<br/><br/> The amount of CO<sub>2</sub> that can be captured depends on the size and
        efficiency of the food industry in your scenario. You can change this in
        <a href="/scenario/demand/industry/food">the Demand → Industry → Food section</a>.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> capture on total emissions, energy use and
        costs.
    share_of_energy_power_ultra_supercritical_ccs_coal:
      title: Pulverised coal
      description: |
        What share of installed pulverised coal capacity will be equipped with a CO<sub>2</sub>
        capture unit? How much CO<sub>2</sub> is captured depends on the number of full load hours
        of these power plants in your scenario. This is influenced by electricity demand, other
        installed power generation technologies and commodity prices.<br/><br/> The amount of
        installed pulverised coal capacity can be set in
        <a href="/scenario/supply/electricity/coal-plants">the Supply → Electricity → Coal plants section</a>.
        <br/><br/>
        If <a href="/scenario/supply/biomass/biocoal-and-bio-oil-in-energy-plants">bio coal</a> is
        used, capture of CO<sub>2</sub> emissions could lead to so-called 'negative' emissions. You
        can find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
    share_of_energy_power_combined_cycle_ccs_coal:
      title: Coal IGCC
      description: |
        What share of installed coal IGCC capacity will be equipped with a CO<sub>2</sub> capture
        unit? How much CO<sub>2</sub> is captured depends on the number of full load hours of these
        power plants in your scenario. This is influenced by electricity demand, other installed
        power generation technologies and commodity prices.<br/><br/> The amount of installed IGCC
        coal capacity can be set in
        <a href="/scenario/supply/electricity/coal-plants">the Supply → Electricity → Coal plants section</a>.
        <br/><br/>
        If <a href="/scenario/supply/biomass/biocoal-and-bio-oil-in-energy-plants">bio coal</a> is
        used, capture of CO<sub>2</sub> emissions could lead to so-called 'negative' emissions. You
        can find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
    share_of_energy_power_ultra_supercritical_oxyfuel_ccs_lignite:
      title: Lignite oxyfuel
      description: |
        What share of installed coal lignite oxyfuel capacity will be equipped with a CO<sub>2</sub>
        capture unit? How much CO<sub>2</sub> is captured depends on the number of full load hours
        of these power plants in your scenario. This is influenced by electricity demand, other
        installed power generation technologies and commodity prices.
        <br/><br/>
        The amount of installed lignite oxyfuel capacity can be set in
        <a href="/scenario/supply/electricity/coal-plants">the Supply → Electricity → Coal plants section</a>.
    share_of_energy_power_combined_cycle_ccs_network_gas:
      title: Gas CCGT
      description: |
        What share of installed gas CCGT capacity will be equipped with a CO<sub>2</sub> capture
        unit? How much CO<sub>2</sub> is captured depends on the number of full load hours of these
        power plants in your scenario. This is influenced by electricity demand, other installed
        power generation technologies and commodity prices.<br/><br/> The amount of installed gas
        CCGT capacity can be set in
        <a href="/scenario/supply/electricity/gas-plants">the Supply → Electricity → Gas plants section</a>.
        <br/><br/>
        If <a href="/scenario/supply/biomass/green-gas-in-gas-network">green gas</a> is used,
        capture of CO<sub>2</sub> emissions could lead to so-called 'negative' emissions. You can
        find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
    share_of_energy_hydrogen_biomass_gasification_ccs:
      title: Biomass gasification
      description: |
        What share of installed biomass gasification capacity for hydrogen production will be
        equipped with a CO<sub>2</sub> capture unit? Because biomass emissions are considered to be
        'short cycle' emissions, capturing these emissions could lead to so-called 'negative'
        emissions. You can find more information on this in the
        <a href="https://docs.energytransitionmodel.com/main/co2-negative-emissions" target=\"_blank\">documentation</a>
        of the ETM.
        <br/><br/>
        The amount of installed biomass gasification plants can be set in
        <a href="/scenario/supply/hydrogen/hydrogen-production">the Supply → Hydrogen → Hydrogen
        production section</a>.
    share_of_energy_hydrogen_steam_methane_reformer_ccs:
      title: Steam methane reforming
      description: |
        What share of installed steam methane reforming capacity for hydrogen production will be
        equipped with a CO<sub>2</sub> capture unit? The amount of installed steam methane reforming
        plants can be set in
        <a href="/scenario/supply/hydrogen/hydrogen-production">the Supply → Hydrogen → Hydrogen production section</a>.
        <br/><br/>
    demand_of_molecules_direct_air_capture_co2:
      title: Direct Air Capture (DAC)
      description: |
        This slider sets the installed capacity of Direct Air Capture plants. Direct Air Capture is
        a process of capturing CO<sub>2</sub> directly from the ambient air using electricity. If
        the electricity used is renewable, storing the captured CO<sub>2</sub> can lead to a net
        decrease in atmospheric CO<sub>2</sub> levels ('negative emissions'). The captured
        CO<sub>2</sub> can also be used for the production of carbon neutral fuels.<br/><br/> You
        can explore these options in
        <a href="/scenario/supply/ccus/utilisation-and-storage-of-co2">the Supply → CCUS → Utilisation and Storage section</a>.
        <br/><br/>
        Direct Air Capture is a promising technology to bring down global CO<sub>2</sub> levels in
        the atmosphere. However, it is also an energy intensive and (at this moment) expensive process.
        Since CO<sub>2</sub> in the
        ambient air is 'available' everywhere in the world, DAC capacity is likely to be installed
        in areas that will have very low (renewable) power costs.
    demand_of_molecules_offshore_sequestration_co2:
      title: Offshore storage
      description: |
        This slider sets the amount of CO<sub>2</sub> <i>per year</i> that is used for long-term storage offshore.
        For example saline acquifers and aging oil or gas fields can be used for this
        purpose.
        <br/><br/>
        The ETM calculates the impact of CO<sub>2</sub> storage on total
        emissions, energy use and costs.
        <br /><br />
        The maximum of this slider varies per region in the ETM and is based on public research.
        It is assumed that the maximum storage value per year can be sustained for a period of 40 years.
        Please note: For some regions, no data could be found on storage potentials. An overview of the
        research used can be found on
        <a href="https://github.com/quintel/etdataset-public/blob/master/source_analyses/eu/2015/11_area/11_ccs_offshore_storage_potential_per_year.xls">
        ETDataset</a>.
    output_of_energy_production_synthetic_kerosene:
      title: Synthetic kerosene
      description: |
{'fraction_non_alphanumeric': 0.0742084558683115, 'fraction_numerical': 0.00519420998357713, 'mean_word_length': 3.0370027752081405, 'pattern_counts': {'":': 0, '<': 384, '<?xml version=': 0, '>': 384, 'https://': 10, 'lorem ipsum': 0, 'www.': 0, 'xml': 0}, 'pii_count': 0, 'substrings_counts': 0, 'word_list_counts': {'cursed_substrings.json': 1, 'profanity_word_list.json': 0, 'sexual_word_list.json': 0, 'zh_pornsignals.json': 0}}
{'dir': 'git-commits-cleaned', 'id': '5393361', 'n_tokens_mistral': 7130, 'n_tokens_neox': 6850, 'n_words': 2908}