{'annex_type': 'Non-Annex I', 'IkiSheet': 'targets', 'page_number': 1, 'renewable_energy_target': nan, 'transport_target_type': nan, 'target_year': 2050, 'country_netzero target_exists': 'x', 'country_summary_transport_targets': 'Transport non-GHG targets', 'target_type': nan, 'oecd': 'non-OECD', 'income_group': 'Middle-income', 'g7': 0, 'mena': 0, 'region': 'Asia', 'parameter': 'T_Economy_C', 'ice_phaseout': nan, 'country_long-term_target_exists': 'x', 'ghg_total': 16.487865775, 'ghg_transport_target_type': nan, 'g20': 0, 'target_scope': nan, 'ghg_transport': 5.57982281}
An economic modelling estimated the socioeconomic costs using the marginal abatement cost model. Adaptation benefits were elaborated for suggested mitigation actions. A credible scenario for carbon neutrality by 2050 The LTS4CN modelling suggests that Cambodia could achieve carbon neutrality in 2050 with the FOLU sector providing a total carbon sink
An economic modelling estimated the socioeconomic costs using the marginal abatement cost model. Adaptation benefits were elaborated for suggested mitigation actions. A credible scenario for carbon neutrality by 2050 The LTS4CN modelling suggests that Cambodia could achieve carbon neutrality in 2050 with the FOLU sector providing a total carbon sink of 50 megatons of carbon dioxide equivalent (MtCO2e). The energy sector is expected to be the highest emitter in 2050 at 28 MtCO2e, followed by the agriculture sector at 19 MtCO2e.
The LTS4CN modelling suggests that Cambodia could achieve carbon neutrality in 2050 with the FOLU sector providing a total carbon sink of 50 megatons of carbon dioxide equivalent (MtCO2e).