{ "cells": [ { "cell_type": "markdown", "id": "6f4317a5", "metadata": {}, "source": [ "(global_settings)=\n", "# global_settings\n", "A singleton object that contains global settings such as penalty cost values. A single global_settings object with the name 'global_settings' is automatically created when SHOP is initialized\n", "\n", "| | |\n", "|---|---|\n", "|Input connections||\n", "|Output connections||\n", "|License|SHOP_OPEN|\n", "|Release version|14.0.0.1|\n", "\n", "```{contents}\n", ":local:\n", ":depth: 1\n", "```\n", "\n", "\n", "\n", "\n", "\n", "\n", "\n", "## Attributes" ] }, { "cell_type": "code", "execution_count": 1, "id": "d72bc47d", "metadata": { "tags": [ "remove-input", "full-width" ] }, "outputs": [ { "data": { "text/html": [ "
\n", "\n" ], "text/plain": [ "" ] }, "execution_count": 1, "metadata": {}, "output_type": "execute_result" } ], "source": [ "from IPython.core.display import HTML\n", "HTML(\"\"\"
\n", "\n", "\"\"\")" ] }, { "cell_type": "markdown", "id": "d5259e69", "metadata": {}, "source": [ "(global_settings:load_penalty_flag)=\n", "### load_penalty_flag\n", "Turn on (1, default) or off (0) the creation of load penalty variables to add to the load balance constraint. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:rsv_penalty_flag)=\n", "### rsv_penalty_flag\n", "Turn on (1, default) or off (0) the addition of reservoir storage penalty variables. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:volume_ramp_penalty_flag)=\n", "### volume_ramp_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables for volume ramping on reservoir. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:level_ramp_penalty_flag)=\n", "### level_ramp_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables for level ramping on reservoir. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:production_ramp_penalty_flag)=\n", "### production_ramp_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables for power ramping on plant production. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_min_q_penalty_flag)=\n", "### plant_min_q_penalty_flag\n", "Turn on (1) or off (0) the addition of penalty variables to the min discharge restrictions on all plants. Default value -1 uses the min_q_penalty_flag specified on each plant to decide if the penalty variables should be added. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_min_p_penalty_flag)=\n", "### plant_min_p_penalty_flag\n", "Turn on (1) or off (0) the addition of penalty variables to the min power restrictions on all plants. Default value -1 uses the min_p_penalty_flag specified on each plant to decide if the penalty variables should be added. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_max_q_penalty_flag)=\n", "### plant_max_q_penalty_flag\n", "Turn on (1) or off (0) the addition of penalty variables to the max discharge restrictions on all plants. Default value -1 uses the max_q_penalty_flag specified on each plant to decide if the penalty variables should be added. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_max_p_penalty_flag)=\n", "### plant_max_p_penalty_flag\n", "Turn on (1) or off (0) the addition of penalty variables to the max power restrictions on all plants. Default value -1 uses the max_p_penalty_flag specified on each plant to decide if the penalty variables should be added. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gate_min_q_penalty_flag)=\n", "### gate_min_q_penalty_flag\n", "Turn on (1) or off (0) the addition of penalty variables to the min discharge restrictions on all gates. Default value -1 uses the min_q_penalty_flag specified on each gate to decide if the penalty variables should be added. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gate_max_q_penalty_flag)=\n", "### gate_max_q_penalty_flag\n", "Turn on (1) or off (0) the addition of penalty variables to the max discharge restrictions on all gates. Default value -1 uses the max_q_penalty_flag specified on each gate to decide if the penalty variables should be added. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gate_ramp_penalty_flag)=\n", "### gate_ramp_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables to the gate ramping restrictions. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_schedule_penalty_flag)=\n", "### plant_schedule_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables to allow breaking the plant production or discharge schedule. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gen_discharge_schedule_penalty_flag)=\n", "### gen_discharge_schedule_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables to allow breaking the generator discharge schedule. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:pump_schedule_penalty_flag)=\n", "### pump_schedule_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables to allow breaking the pump consumption or upflow schedule. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:power_limit_penalty_flag)=\n", "### power_limit_penalty_flag\n", "Turn on (1, default) or off (0) the addition of penalty variables to allow breaking the sum power limits for a group of plants. Can also be set with the command 'penalty flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:power_limit_penalty_cost)=\n", "### power_limit_penalty_cost\n", "The penalty cost for breaking the constraints limiting the sum power output for a group of plants. Default value is 50000 NOK/MWh. Can also be set with the command 'penalty cost'. (xUnit: NOK/MWH, yUnit: NOK/MWH)\n", "\n", "\n", "(global_settings:load_penalty_cost)=\n", "### load_penalty_cost\n", "The penalty cost for not fulfilling the load obligation. Default value is 5000 NOK/MWh. Can also be set with the command 'penalty cost'. (xUnit: NOK/MWH, yUnit: NOK/MWH)\n", "\n", "\n", "(global_settings:rsv_penalty_cost)=\n", "### rsv_penalty_cost\n", "The penalty cost for breaking the reservoir water balance constraints. Default value is 10,000,000 NOK/Mm3. Can also be set with the command 'penalty cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:rsv_hard_limit_penalty_cost)=\n", "### rsv_hard_limit_penalty_cost\n", "The penalty cost for breaking the hard min/max volume or head limit constraints on all reservoirs. Default value is 9,000,000 NOK/Mm3. Can also be set with the command 'set rsv_hard_limit_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:volume_ramp_penalty_cost)=\n", "### volume_ramp_penalty_cost\n", "The penalty cost for breaking the reservoir volume ramping constraints. Default value is 100 NOK/MM3. Can also be set with the command 'penalty cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:level_ramp_penalty_cost)=\n", "### level_ramp_penalty_cost\n", "The penalty cost for breaking the reservoir level ramping constraints. Default value is 100 NOK/METER (xUnit: NOK/METER, yUnit: NOK/METER)\n", "\n", "\n", "(global_settings:production_ramp_penalty_cost)=\n", "### production_ramp_penalty_cost\n", "The penalty cost for breaking the plant power production ramping constraints. Default value is 100 NOK/MWh. Can also be set with the command 'penalty cost'. (xUnit: NOK/MWH, yUnit: NOK/MWH)\n", "\n", "\n", "(global_settings:plant_discharge_ramp_penalty_cost)=\n", "### plant_discharge_ramp_penalty_cost\n", "The penalty cost for breaking the plant discharge ramping constraints. Default value is 100 NOK/m3s. Can also be set with the command 'penalty cost'. (xUnit: NOK/M3/S, yUnit: NOK/M3/S)\n", "\n", "\n", "(global_settings:plant_soft_p_penalty)=\n", "### plant_soft_p_penalty\n", "The penalty cost for breaking max and min power production constraints on plant level if max_p_penalty_cost and min_p_penalty_cost are not set for the plant. Default value is 100 NOK/MWh. Can also be set with the command 'penalty cost'. (xUnit: NOK/MWH, yUnit: NOK/MWH)\n", "\n", "\n", "(global_settings:plant_soft_q_penalty)=\n", "### plant_soft_q_penalty\n", "The penalty cost for breaking max and min discharge constraints on plant level if max_q_penalty_cost and min_q_penalty_cost are not set for the plant. Default value is 100000 NOK/Mm3. Can also be set with the command 'penalty cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:plant_sched_penalty_cost_up)=\n", "### plant_sched_penalty_cost_up\n", "The penalty cost for breaking the plant production or discharge schedules in upward direction. Default value is 1000000 NOK/MWh or 1000000 NOK/Mm3. (xUnit: NOK, yUnit: NOK)\n", "\n", "\n", "(global_settings:plant_sched_penalty_cost_down)=\n", "### plant_sched_penalty_cost_down\n", "The penalty cost for breaking the plant production or discharge schedules in downward direction. Default value is 1000000 NOK/MWh or 1000000 NOK/Mm3. (xUnit: NOK, yUnit: NOK)\n", "\n", "\n", "(global_settings:gen_discharge_sched_penalty_cost_up)=\n", "### gen_discharge_sched_penalty_cost_up\n", "The penalty cost for breaking the generator discharge schedule in upward direction. Default value is 1000000 NOK/Mm3. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:gen_discharge_sched_penalty_cost_down)=\n", "### gen_discharge_sched_penalty_cost_down\n", "The penalty cost for breaking the generator discharge schedules in downward direction. Default value is 1000000 NOK/Mm3. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:pump_sched_penalty_cost_up)=\n", "### pump_sched_penalty_cost_up\n", "The penalty cost for breaking the pump production or discharge schedules in upward direction. Default value is 1000000 NOK/MWh or 1000000 NOK/Mm3. (xUnit: NOK, yUnit: NOK)\n", "\n", "\n", "(global_settings:pump_sched_penalty_cost_down)=\n", "### pump_sched_penalty_cost_down\n", "The penalty cost for breaking the pump production or discharge schedules in downward direction. Default value is 1000000 NOK/MWh or 1000000 NOK/Mm3. (xUnit: NOK, yUnit: NOK)\n", "\n", "\n", "(global_settings:gate_ramp_penalty_cost)=\n", "### gate_ramp_penalty_cost\n", "The penalty cost for breaking the gate discharge ramping constraints. Default value is 360 NOK/(m3/s). Can also be set with the command 'penalty cost'. (xUnit: NOK/M3/S, yUnit: NOK/M3/S)\n", "\n", "\n", "(global_settings:discharge_group_penalty_cost)=\n", "### discharge_group_penalty_cost\n", "The penalty cost for breaking the discharge group constraints. Default value is 1000000 NOK/Mm3. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:reserve_schedule_penalty_cost)=\n", "### reserve_schedule_penalty_cost\n", "The penalty cost for breaking the unit reserve schedule constraints. Default value is 10000 NOK/MW. Can also be set with the command 'set reserve_schedule_penalty_cost'. (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:reserve_group_penalty_cost)=\n", "### reserve_group_penalty_cost\n", "The penalty cost for delivering less than the reserve obligations of any reserve type in any reserve group. Default value is 10000 NOK/MW. Can also be set with the command 'set reserve_penalty_cost'. (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:bypass_cost)=\n", "### bypass_cost\n", "The cost of discharging water in bypass gates. Default value is 0.01 NOK/Mm3. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:gate_cost)=\n", "### gate_cost\n", "The cost of discharging water in regular gates. Default value is 0 NOK/Mm3. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:overflow_cost)=\n", "### overflow_cost\n", "The cost of discharging water in spill gates. Default value is 50000 NOK/Mm3. Can also be set with the command 'penalty cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:overflow_cost_time_factor)=\n", "### overflow_cost_time_factor\n", "A small negative cost element added to the spillage cost to avoid all flooding to occur at the end of the optimization period. Default value is -0.000001 NOK/Mm3/h. Can also be set with the command 'penalty cost'. (xUnit: NOK/MM3H, yUnit: NOK/MM3H)\n", "\n", "\n", "(global_settings:gen_reserve_ramping_cost)=\n", "### gen_reserve_ramping_cost\n", "The default cost for ramping on all reserves types delivered on generators if generator specific or reserve type specific costs are not present. See the reserve type specific attributes fcr_n_ramping_cost, fcr_d_ramping_cost, frr_ramping_cost, and rr_ramping_cost and the command 'set reserve_ramping_cost' (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:pump_reserve_ramping_cost)=\n", "### pump_reserve_ramping_cost\n", "The default cost for ramping on all reserves types delivered on pumps if pump specific or reserve type specific costs are not present. See the reserve type specific attributes fcr_n_ramping_cost, fcr_d_ramping_cost, frr_ramping_cost, and rr_ramping_cost and the command 'set reserve_ramping_cost' (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:reserve_contribution_cost)=\n", "### reserve_contribution_cost\n", "The cost for a unit participating in the reserve delivery. Default value is 0 NOK/MW. Can also be set with the command 'set reserve_contribution_cost'. (xUnit: NOK, yUnit: NOK)\n", "\n", "\n", "(global_settings:gate_ramp_cost)=\n", "### gate_ramp_cost\n", "The cost of ramping on gate discharge. Default value is 0 NOK/(m3/s). (xUnit: NOK/M3/S, yUnit: NOK/M3/S)\n", "\n", "\n", "(global_settings:reserve_group_slack_cost)=\n", "### reserve_group_slack_cost\n", "The cost for delivering more than the reserve obligations of any reserve type in any reserve group. Default value is 0.000001 NOK/MW. Can also be set with the command 'set reserve_slack_cost'. (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:fcr_n_ramping_cost)=\n", "### fcr_n_ramping_cost\n", "The cost for ramping on the FCR-N reserves delivered by the generators and pumps if unit specific costs are not provided. Default value of 1e40 signifies that the ramping cost is not specified, and that the default gen_reserve_ramping_cost should be used instead. Can also be set with the command 'set reserve_ramping_cost'. (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:fcr_d_ramping_cost)=\n", "### fcr_d_ramping_cost\n", "The cost for ramping on the FCR-D reserves delivered by the generators and pumps if unit specific costs are not provided. Default value of 1e40 signifies that the ramping cost is not specified, and that the default gen_reserve_ramping_cost should be used instead. Can also be set with the command 'set reserve_ramping_cost'. (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:frr_ramping_cost)=\n", "### frr_ramping_cost\n", "The cost for ramping on the FRR reserves delivered by the generators and pumps if unit specific costs are not provided. Default value of 1e40 signifies that the ramping cost is not specified, and that the default gen_reserve_ramping_cost should be used instead. Can also be set with the command 'set reserve_ramping_cost'. (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:rr_ramping_cost)=\n", "### rr_ramping_cost\n", "The cost for ramping on the RR reserves delivered by the generators and pumps if unit specific costs are not provided. Default value of 1e40 signifies that the ramping cost is not specified, and that the default gen_reserve_ramping_cost should be used instead. Can also be set with the command 'set reserve_ramping_cost'. (xUnit: NOK/MW, yUnit: NOK/MW)\n", "\n", "\n", "(global_settings:fcr_n_up_activation_factor)=\n", "### fcr_n_up_activation_factor\n", "The fraction (between 0 and 1) of the reserved FCR-N up capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_n_down_activation_factor)=\n", "### fcr_n_down_activation_factor\n", "The fraction (between 0 and 1) of the reserved FCR-N down capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_d_up_activation_factor)=\n", "### fcr_d_up_activation_factor\n", "The fraction (between 0 and 1) of the reserved FCR-D up capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_d_down_activation_factor)=\n", "### fcr_d_down_activation_factor\n", "The fraction (between 0 and 1) of the reserved FCR-D down capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:frr_up_activation_factor)=\n", "### frr_up_activation_factor\n", "The fraction (between 0 and 1) of the reserved FRR up capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:frr_down_activation_factor)=\n", "### frr_down_activation_factor\n", "The fraction (between 0 and 1) of the reserved FRR down capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:rr_up_activation_factor)=\n", "### rr_up_activation_factor\n", "The fraction (between 0 and 1) of the reserved RR up capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:rr_down_activation_factor)=\n", "### rr_down_activation_factor\n", "The fraction (between 0 and 1) of the reserved RR down capacity that is assumed to be activated for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_n_up_activation_time)=\n", "### fcr_n_up_activation_time\n", "The expected activation duration for the reserved FCR-N up capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_n_down_activation_time)=\n", "### fcr_n_down_activation_time\n", "The expected activation duration for the reserved FCR-N down capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: HOUR, yUnit: HOUR)\n", "\n", "\n", "(global_settings:fcr_d_up_activation_time)=\n", "### fcr_d_up_activation_time\n", "The expected activation duration for the reserved FCR-D up capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: HOUR, yUnit: HOUR)\n", "\n", "\n", "(global_settings:fcr_d_down_activation_time)=\n", "### fcr_d_down_activation_time\n", "The expected activation duration for the reserved FCR-D down capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: HOUR, yUnit: HOUR)\n", "\n", "\n", "(global_settings:frr_up_activation_time)=\n", "### frr_up_activation_time\n", "The expected activation duration for the reserved FRR up capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: HOUR, yUnit: HOUR)\n", "\n", "\n", "(global_settings:frr_down_activation_time)=\n", "### frr_down_activation_time\n", "The expected activation duration for the reserved FRR down capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: HOUR, yUnit: HOUR)\n", "\n", "\n", "(global_settings:rr_up_activation_time)=\n", "### rr_up_activation_time\n", "The expected activation duration for the reserved RR up capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: HOUR, yUnit: HOUR)\n", "\n", "\n", "(global_settings:rr_down_activation_time)=\n", "### rr_down_activation_time\n", "The expected activation duration for the reserved RR down capacity that is assumed for all units in the system, the plant specific attribute with the same name will override this value. (xUnit: HOUR, yUnit: HOUR)\n", "\n", "\n", "(global_settings:fcr_n_up_activation_penalty_cost)=\n", "### fcr_n_up_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of FCR-N up reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:fcr_n_down_activation_penalty_cost)=\n", "### fcr_n_down_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of FCR-N down reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:fcr_d_up_activation_penalty_cost)=\n", "### fcr_d_up_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of FCR-D up reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:fcr_d_down_activation_penalty_cost)=\n", "### fcr_d_down_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of FCR-D down reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:frr_up_activation_penalty_cost)=\n", "### frr_up_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of FRR up reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:frr_down_activation_penalty_cost)=\n", "### frr_down_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of FRR down reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:rr_up_activation_penalty_cost)=\n", "### rr_up_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of RR up reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:rr_down_activation_penalty_cost)=\n", "### rr_down_activation_penalty_cost\n", "The penalty cost for violating the reservoir volume constraints due to potential activation of RR down reserves. Can also be set with the command 'set reserve_activation_penalty_cost'. (xUnit: NOK/MM3, yUnit: NOK/MM3)\n", "\n", "\n", "(global_settings:reserve_tactical_activation_cost_scaling)=\n", "### reserve_tactical_activation_cost_scaling\n", "The penalty cost for violating the tactical reservoir volumes is decided by the reserve activation penalty cost scaled by this factor. Can also be set with the command 'set reserve_tactical_activation_cost_scaling'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:use_heuristic_basis)=\n", "### use_heuristic_basis\n", "If this parameter is set to 1 a heuristic start basis is given to CPLEX, while a value of 0 (default) does not provide CPLEX with a start basis guess. Can also be set with the command 'set optbasis'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:nodelog)=\n", "### nodelog\n", "Set the MIP node logging interval (100 is default) used by CPLEX when updating the CPLEX log file. Can also be set with the command 'set mip_nodelog'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:max_num_threads)=\n", "### max_num_threads\n", "Set the max number of threads CPLEX can use when solving a MIP problem or using the barrier solver. Default of -1 lets CPLEX use all available threads. Can also be set with the command 'set max_num_threads' (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:parallelmode)=\n", "### parallelmode\n", "Choose the parallel mode CPLEX uses when solving a problem in parallel: 1 (default) gives deterministic result behaviour while -1 lets CPLEX fully utilize the parallel processing. A value of 0 lts CPLEX choose based on the problem. Can also be set with the command 'set parallel_mode'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:timelimit)=\n", "### timelimit\n", "Maximal number of seconds that can be used to solve a SHOP iteration in CPLEX. Default value is 900 s. Can also be set with the command 'set timelimit'. (xUnit: SECOND, yUnit: SECOND)\n", "\n", "\n", "(global_settings:mipgap_rel)=\n", "### mipgap_rel\n", "The maximal relative objective function gap between final integer solution and best bound in CPLEX. Default value is -1 which uses default CPLEX relative MIP gap. Can also be set with the command 'set mipgap'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:mipgap_abs)=\n", "### mipgap_abs\n", "The maximal objective function gap between final integer solution and best bound in CPLEX. Default value is -1 which uses default CPLEX absolute MIP gap. Can also be set with the command 'set mipgap'. (xUnit: NOK, yUnit: NOK)\n", "\n", "\n", "(global_settings:inteps)=\n", "### inteps\n", "Numerical tolerance for when CPLEX will consider a decimal number to be integer. Default value is 0.00001. Can also be set with the command 'set inteps'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:input_basis_name)=\n", "### input_basis_name\n", "Name of the file containing a saved input basis for the optimization problem is saved. If no name is given, no input basis will be loaded. Can also be set with the command 'read optbasis'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:output_basis_name)=\n", "### output_basis_name\n", "Name of the file where the optimal basis from the optimization problem in the next iteration is saved. If no name is given, no basis will be saved. Can also be set with the command 'save optbasis'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:solver_algorithm)=\n", "### solver_algorithm\n", "Name of the solution algorithm CPLEX will use to solve linear problems, can be either 'PRIMAL', 'DUAL' (default), 'BARRIER', 'NETPRIMAL', 'NETDUAL', or 'CONCURRENT'. Can also be set with the command 'set method'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:cplex_int_params)=\n", "### cplex_int_params\n", "Specify any integer parameter that can be set in CPLEX by specifying the identifiers as x values and the int parameters as y values. See the CPLEX documentation for a complete list of parameters to set. For instance, the 'MIP emphasis switch' parameter has an id of 2058 and may take the values from 0 to 5 (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:cplex_double_params)=\n", "### cplex_double_params\n", "Specify any floating point parameter that can be set in CPLEX by specifying the identifiers as x values and the double parameters as y values. See the CPLEX documentation for a complete list of parameters to set. For instance, the 'Benders optimality cut tolerance' parameter has an id of 1510 and may be any number from 1e-9 to 1e-1 (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:n_seg_up)=\n", "### n_seg_up\n", "Number of segments to be used above best efficient point in incremental mode. Can also be set with the command 'set nseg'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:n_seg_down)=\n", "### n_seg_down\n", "Number of segments to be used below best efficient point in incremental mode. Can also be set with the command 'set nseg'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:n_mip_seg_up)=\n", "### n_mip_seg_up\n", "Number of segments to be used above best efficient point in full mode. Can also be set with the command 'set nseg'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:n_mip_seg_down)=\n", "### n_mip_seg_down\n", "Number of segments to be used below best efficient point in full mode. Can also be set with the command 'set nseg'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:dyn_pq_seg_flag)=\n", "### dyn_pq_seg_flag\n", "Flag determining whether dynamically define the segments in the building of the original PQ curve for all the units in incremental mode if no flag series on the plant is provided. Can also be set with the command 'set dyn_seg'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:dyn_mip_pq_seg_flag)=\n", "### dyn_mip_pq_seg_flag\n", "Flag determining whether dynamically define the number of points of the original PQ curve for all the units in full mode if no flag series on the plant or generator is provided. Can also be set with the command 'set dyn_seg'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bypass_segments)=\n", "### bypass_segments\n", "Change the number of variables used to describe the flow in bypass gates. Default number of segments is 1. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gate_segments)=\n", "### gate_segments\n", "Change the number of variables used to describe the flow in regular gates. Default number of segments is 3. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:overflow_segments)=\n", "### overflow_segments\n", "Change the number of variables used to describe the flow in spill gates. Default number of segments is 3. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gravity)=\n", "### gravity\n", "The value of the acceleration due to gravity. Default value is 9.81 m/s2. Can also be set with the command 'set gravity'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gen_reserve_min_free_cap_factor)=\n", "### gen_reserve_min_free_cap_factor\n", "The fraction of the maximal generator production that must be left open while the generator is delivering FCR. Default value is 0.02. Can also be set with the command 'set reserve_min_capacity'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_n_band)=\n", "### fcr_n_band\n", "The size of the frequency range in either direction where FCR-N is activated. Default value is 0.1 Hz (49.9 to 50.1 Hz). Can also be set with the command 'set fcr_n_band'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_d_band)=\n", "### fcr_d_band\n", "The size of the frequency range in upward direction where FCR-D is activated. Default value is 0.4 Hz (49.5 to 49.9 Hz). Can also be set with the command 'set fcr_d_band'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:universal_mip)=\n", "### universal_mip\n", "Toggle the use of binary variables for generator and pump unit commitment on (1) or off (0). Default value of -1 uses mip_flag on each plant to decide if binary variables should be used. Can also be set by the command 'set universal_mip'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:universal_overflow_mip)=\n", "### universal_overflow_mip\n", "Toggle the use of binary variables to for reservoir to prevent non-physical spill. Default value of -1 uses overflow_mip_flag on each reservoir to decide if binary variables should be used. Can also be set by the command 'set universal_overflow_mip'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:universal_river_mip)=\n", "### universal_river_mip\n", "Toggle the use of binary variables to for river to prevent flow when water level is below weir. Default value of -1 uses river_mip_flag on each river to decide if binary variables should be used. Can also be set by the command 'set universal_river_mip'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:linear_startup)=\n", "### linear_startup\n", "Toggle the building of liner startup and shutdown costs for generators and pumps on (1) or off (0) when MIP is not active. Default value of -1 uses linear_startup_flag on each plant to decide if startup and shutdown costs should be used. Can also be set by the command 'set linear_startup'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:dyn_flex_mip_steps)=\n", "### dyn_flex_mip_steps\n", "Set the number of time steps used for dynamic flexible MIP. Default value of -1 turns off the dynamic flexible MIP functionality. Can also be set with the command 'set dyn_flex_mip'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:merge_blocks)=\n", "### merge_blocks\n", "Turn on (1) or off (0, default) the mering of similar and adjacent time steps for gate discharge and plant production results. A value of 2 will only keep merged blocks from the previous iteration and stop further merging. Can also be set with the command 'set merge'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:power_head_optimization)=\n", "### power_head_optimization\n", "Turn on (1, default) or off (0) power head optimization functionality. Can also be set with the command 'set power_head_optimization'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:droop_discretization_limit)=\n", "### droop_discretization_limit\n", "Set the limit for fixing the droop value of all units that have a resulting droop below the specified limit. The droop is fixed to the closest legal discrete value below the given limit, which is the closest integer below unless the unit has a defined discrete_droop_values attribute. Default value is 0.0. Can also be set with the command 'set discrete_droop_limit'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:droop_cost_exponent)=\n", "### droop_cost_exponent\n", "Set this value to any positive number higher than 1.0 to build a convex and increasing cost curve for the droop value instead of using a linear cost. The number represents the degree of the convex polynomial used to build the cost curve, which means that a value of 2.0 results in a quadratic cost curve. Can also be set with the command 'set droop_cost_exponent'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:droop_ref_value)=\n", "### droop_ref_value\n", "Used to scale the exponential droop cost when the droop_cost_exponent is higher than 1. The exponential cost will be the same as the standard linear cost for the reference value. Can also be set with the command 'set droop_ref_value'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:disable_rsv_penalties)=\n", "### disable_rsv_penalties\n", "Disable the use of reservoir penalty variables by setting this parameter to 1. This means that SHOP is unable to create or destroy water by using penalties, but the model may be infeasible instead. Therefore, this feature is mostly useful for debugging models with lots of reservoir penalties (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:binary_reserve_limits)=\n", "### binary_reserve_limits\n", "If this attribute is set to 1, binary variables will be used to enforce the minimum reserve limit imposed by frr_down_min etc. on unit and plant level. If it is set to zero the binary variables are relaxed, and fixed to 0 or 1 in incremental iterations based on the reserve delivery in the previous iteration. The default option of -1 will use binary variables in full iterations if the mip_flag on the plant is active, and otherwise relax and fix them to either 0 or 1 depending on the reserve delivery in the previous iteration. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:universal_strict_pq_uploading)=\n", "### universal_strict_pq_uploading\n", "If this attribute is set to 1, binary variables will be used to enforce the correct uploading of each segment in the PQ curves of all generators and time steps. Setting the attribute to zero will disable all use of binary variables in the PQ curve segmentation, while the default setting of -1 will let the plant attributes strict_pq_uploading_flag and strict_pq_uploading_upon_detection determine the behaviour. Can also be set with the command 'set universal_strict_pq_uploading' (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:create_cuts)=\n", "### create_cuts\n", "Turn on (1) or off (0, default) the createion of cuts for the start time of the SHOP run. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:print_sim_inflow)=\n", "### print_sim_inflow\n", "Turn on (1) or off (0, default) the printing of simulated inflow to the simulation result text files. Can also be set with the command 'start shopsim'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:pump_head_optimization)=\n", "### pump_head_optimization\n", "Turn on (1) or off (0, default) the inclusion of pump variables in the power head optimization. Can also be set with the command 'set power_head_optimization'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:save_pq_curves)=\n", "### save_pq_curves\n", "Turn on (1) or off (0, default) the saving of the constructed PQ curves for each unit. Can also be set with the command 'save pq_curves'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:build_original_pq_curves_by_discharge_limits)=\n", "### build_original_pq_curves_by_discharge_limits\n", "Turn on (1, default) or off (0) the building of the original PQ curves by only considering discharge-related limits. Can also be set with the command 'set build_original_pq_curves_by_discharge_limits'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_unbalance_recommit)=\n", "### plant_unbalance_recommit\n", "Turn on (1) or off (0, default) the heuristic that attempts to recommit units in a better way for hours without MIP and the resulting plant discharge is smaller than the optimal discharge from solver. Can also be set with the command 'set plant_unbalance_recommit'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:prefer_start_vol)=\n", "### prefer_start_vol\n", "Turn on (1, default) or off (0) the preference of start_vol over start_head for reservoirs where both are specified. Initial water level will be preferred if this attribute is set to zero. Can also be set with the command 'set initial_reservoir'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bp_print_discharge)=\n", "### bp_print_discharge\n", "... Can also be set with the command 'create bp_curves'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:prod_from_ref_prod)=\n", "### prod_from_ref_prod\n", "... Can also be set with the command 'set prod_from_ref_prod'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bp_min_points)=\n", "### bp_min_points\n", "... Can also be set with the command 'set min_bp_points'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bp_mode)=\n", "### bp_mode\n", "Turn on (1) or off (0, default)... Can also be set with the command 'create bp_curves'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:stop_cost_from_start_cost)=\n", "### stop_cost_from_start_cost\n", "Turn on (1) or off (0, default) the usage of the input generator start cost as stop cost. Can also be set with the command 'set stop_cost_from_start_cost'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:ownership_scaling)=\n", "### ownership_scaling\n", "Turn on (1) or off (0, default) the rescaling of the production results for plants and generators that have an ownership less than 100. The scaled results are only found in the text result files. Can also be set with the command 'set ownership_scaling'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:time_delay_unit)=\n", "### time_delay_unit\n", "Specifies the time unit of the time delay for plants, gates, etc. in the system. Must be either 'MINUTE', 'HOUR' or 'TIME_STEP_LENGTH' (default). Can also be set with the command 'set time_delay_unit'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bypass_loss)=\n", "### bypass_loss\n", "Turn on (1) or off (0, default) the addition of the flow in bypass gates when calculating tailrace loss for plants if tailrace_loss_from_bypass_flag is not used. Can also be set with the command 'set bypass_loss'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:gen_turn_off_limit)=\n", "### gen_turn_off_limit\n", "A decimal number between 0 and 1 that signifies if the generator operates below the fraction (the decimal number) of its minimum operating limit in full mode without MIP, the generator will be turned off. Default value is 0.5. Can also be set with the command 'set gen_turn_off_limit'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:pump_turn_off_limit)=\n", "### pump_turn_off_limit\n", "A decimal number between 0 and 1 that signifies if the pump operates below the fraction (the decimal number) of its minimum operating limit in full mode without MIP, the pump will be turned off. Default value is 0.5. Can also be set with the command 'set pump_turn_off_limit'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:fcr_n_equality_flag)=\n", "### fcr_n_equality_flag\n", "Turn on (1) or off (0, default) the building of constraints to force the fcr_n delivery for all units to by symmetric. Can also be set with the command 'set fcr_n_equality_flag'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:delay_valuation_mode)=\n", "### delay_valuation_mode\n", "The value 0 (default) uses the first value in the water value description to set the value of water in transition at the end of the optimization period. Setting the value to 1 will use the middle point of the water value description instead. Can also be set with the command 'set delay_valuation_mode'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:universal_affinity_flag)=\n", "### universal_affinity_flag\n", "Turn on (1) or off (0) the use of affinity equations for translating turbine efficiency curves of generators. Default value of -1 uses affinity_eq_flag on each generator to decide if affinity equations should be used. Can also be set by the command 'set universal_affinity'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:ramp_code)=\n", "### ramp_code\n", "Toggle the building of ramping constraints on (1), off (-1), or when violated in previous iteration (0, default). Can also be set with the command 'set ramping'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:print_original_pq_curves)=\n", "### print_original_pq_curves\n", "Turn on (1) or off (0, default) the writing of the original PQ curves constructed by SHOP before convexification to file. Can also be set with the command 'print pq_curves'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:print_convex_pq_curves)=\n", "### print_convex_pq_curves\n", "Turn on (1) or off (0, default) the writing of the convexified PQ curves constructed by SHOP to file. Can also be set with the command 'print pq_curves'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:print_final_pq_curves)=\n", "### print_final_pq_curves\n", "Turn on (1) or off (0, default) the writing of the final PQ curves used in the optimization by SHOP to file. Can also be set with the command 'print pq_curves'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:shop_log_name)=\n", "### shop_log_name\n", "Name of the log file written to by SHOP, default is 'shop.log'. Can also be set with the command 'log file'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:shop_yaml_log_name)=\n", "### shop_yaml_log_name\n", "Name of the yaml log file written to by SHOP, default is 'shop_yaml.yaml'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:solver_log_name)=\n", "### solver_log_name\n", "Name of the log file written to by the solver, default is 'cplex.log'. Can also be set with the command 'log file'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:minimal_infeasible_problem_file)=\n", "### minimal_infeasible_problem_file\n", "Name of the log file written to by the solver when the problem is infeasible, default is 'minimal_infeasible_problem.lp'. Can also be set with the command 'log file infeasible.lp /lpmin'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:model_file_name)=\n", "### model_file_name\n", "Name of the file where the model seen by the optimization solver will be written to in the next iteration. If no name is given, the model will not be printed to file. Can also be set with the command 'print model'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:pq_curves_name)=\n", "### pq_curves_name\n", "Name of the file the PQ curves will be written to if activated by setting the print_<>_pq_curves attributes. A default file name based on the iteration will be used if this attribute is not set. Can also be set with the command 'print pq_curves'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:print_loss)=\n", "### print_loss\n", "Turn on (1) or off (0, default) the writing of junction tunnel loss to the result files. Can also be set with the caommand 'save tunnel_loss'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:shop_xmllog)=\n", "### shop_xmllog\n", "Write the log to xml format if this value is set to 1 instead of the default value 0. Can also be set with the command 'set xmllog' (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:print_optimized_startup_costs)=\n", "### print_optimized_startup_costs\n", "Set value to 1 to only print out the startup and shutdown costs that have been seen by the optimization solver to the log file. Default value of 0 prints out the post calculated startup and shutdown costs. Can also be set with the command 'set startup_cost_printout'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:get_duals_from_mip)=\n", "### get_duals_from_mip\n", "Set value to 1 to fix binary variables after solving a MIP iteration and solving the resulting linear problem again to get dual values. Default value of 0 does not re-solve MIP problems to get dual values. Can also be set with the command 'set duals_from_mip'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bid_aggregation_level)=\n", "### bid_aggregation_level\n", "Set the bid aggregation level of the SHARM bidding functionality to add all plants to the same bid group (0) or to create individual bid groups for each plant (1). If set to -1 (default), the plants are placed in bid groups according to the bid_group attribute on the plant. Can also be set with the command 'set bid_aggregation_level'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:simple_pq_recovery)=\n", "### simple_pq_recovery\n", "Turn on (1) or off (0, default) simplified building of PQ curves with a single segment for problematic generators suffering from non-physical uploading of the PQ segments. Can also be turned on with the command 'set simple_pq_recovery'. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:rr_up_schedule_slack_flag)=\n", "### rr_up_schedule_slack_flag\n", "Turn on (1) or off (0, default) slack variable for RR_UP schedule on generators. Penalty cost for slack is set equal to reserve_slack_cost. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bp_ref_mc_from_market)=\n", "### bp_ref_mc_from_market\n", "Turn on (1) or off (0, default) functionality taking marginal cost from market description for current operating point on the best profit curve. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:bp_bid_matrix_points)=\n", "### bp_bid_matrix_points\n", "The maximum number of price columns allowed in the best_profit_bid_matrix on the plant object. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:ramp_scale_factor)=\n", "### ramp_scale_factor\n", "Used to scale all input ramping values for production and discharge on plants, gates, and reservoirs. Can also be set with the command 'set ramp_scale_factor' (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:river_flow_penalty_cost)=\n", "### river_flow_penalty_cost\n", "The default penalty cost for breaking the min_flow and max_flow constraints defined on river objects. (xUnit: NOK/H/M3/S, yUnit: NOK/H/M3/S)\n", "\n", "\n", "(global_settings:river_flow_schedule_penalty_cost)=\n", "### river_flow_schedule_penalty_cost\n", "The default penalty cost for breaking the flow_schedule constraints defined on river objects. (xUnit: NOK/H/M3/S, yUnit: NOK/H/M3/S)\n", "\n", "\n", "(global_settings:recommit)=\n", "### recommit\n", "Turn on (1, default) or off (0) the general heuristic that attempts to recommit units in a better way for hours without MIP. (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:droop_cost)=\n", "### droop_cost\n", "The global cost added to the inverse droop variables related to FCR reserve delivery, which makes SHOP prefer high droop settings (default is 55). The unit-specific droop_cost attributes will override this value if specified. The droop cost could skew optimization against reserve market prices (xUnit: NOK, yUnit: NOK)\n", "\n", "\n", "(global_settings:rr_down_stop_mip)=\n", "### rr_down_stop_mip\n", "Setting this attribute to 1 will turn on the use of binary variables in full iterations to ensure all generators delivering RR-DOWN reserves have valid stop deliveries. This forces RR-DOWN to either be alocated as spinning reserve (down to p_min) or down to a full stop, and no other spinning reservers can be allocated on the unit if RR-DOWN is delivered down to stop. RR-DOWN allocation in forbidden production regions (between 0 and p_min) is also prohibited. The generator attribute 'rr_down_stop_mip_flag' can be used to override this attribute per generators (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:rr_up_stop_mip)=\n", "### rr_up_stop_mip\n", "Setting this attribute to 1 will turn on the use of binary variables in full iterations to ensure all pump delivering RR-UP reserves have valid stop deliveries. This forces RR-UP to either be alocated as spinning reserve (down to p_min) or up to a full stop, and no other spinning reservers can be allocated on the unit if RR-UP is delivered to stop. RR-UP allocation in forbidden consumption regions (between 0 and p_min) is also prohibited. The pump attribute 'rr_up_stop_mip_flag' can be used to override this attribute per pump (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_max_prod_reserve_strategy)=\n", "### plant_max_prod_reserve_strategy\n", "Determines what type of max limit constraints will be added to limit the production including upward reserve capacity on plant level: 'OFF' (default) - no max constraint is added, 'ALL' - max_prod_all on the plant will be used as upper limit for plant production including upward reserves, 'AVAILABLE' - max_prod_available on the plant will be used as upper limit, 'SPINNING' - max_prod_spinning on the plant will be used as upper limit. This setting is overridden by the plant attribute 'max_prod_reserve_strategy', and can also be set with the command 'set plant_max_prod_reserve_strategy' (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:plant_min_prod_reserve_strategy)=\n", "### plant_min_prod_reserve_strategy\n", "Determines what type of min limit constraints will be added to limit the production including downward reserve capacity on plant level: 'OFF' (default) - no min constraint for plant production including downward reserves, 'SPINNING' - the min_prod_spinning attribute on the plant will be used as lower limit. This setting is overridden by the plant attribute 'min_prod_reserve_strategy', and can also be set with the command 'set plant_min_prod_reserve_strategy' (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:shop_version)=\n", "### shop_version\n", "Version string (xUnit: NO_UNIT, yUnit: NO_UNIT)\n", "\n", "\n", "(global_settings:river_big_m_factor)=\n", "### river_big_m_factor\n", "Scale factor to reduce the river big-M value relative to result in previous iteration to reduce computation time. 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