{"action":"created","comment":{"url":"https://api.github.com/repos/NREL/EnergyPlus/pulls/comments/38135170","id":38135170,"diff_hunk":"@@ -14086,6 +14107,375 @@ AirConditioner:VariableRefrigerantFlow,\n \n \n \n+### AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl\n+\n+#### Field: Heat Pump Name \n+\n+This alpha field defines a unique user-assigned name for an instance of a variable refrigerant flow heat pump. Any reference to this heat pump will use this name. Since this object is not listed in an AirloopHVAC object, the most likely use of this name would be for reporting purposes.\n+\n+#### Field: Availability Schedule Name\n+\n+This alpha field defines the name of the schedule (ref: Schedule) that denotes whether the heat pump operates during a given time period. A schedule value equal to 0 denotes that the heat pump must be off for that time period. A value other than 0 denotes that the heat pump is available to operate during that time period. This schedule may be used to completely disable the heat pump (and all of its terminal units) as required. If this field is blank, the unit is enabled the entire simulation.\n+\n+#### Field: Zone Terminal Unit List Name\n+\n+This alpha field defines the name of the zone terminal unit list. The name specified here should match the name of a valid ZoneTerminalUnitList object. In addition, each name specified in this list should match the name of a valid ZoneHVAC:TerminalUnit: VariableRefrigerantFlow object. All terminal units connected to this heat pump must be listed in this ZoneTerminalUnitList object.\n+\n+#### Field: Refrigerant Type\n+\n+This alpha field defines the name of the refrigerant used in the VRF system. The name specified here should match the name of a valid FluidProperties:Name object. \n+\n+####Field: Reference Cooling COP\n+\n+This numeric field defines the cooling coefficient of performance at rated conditions. This value is only used for the initialization of the physics based VRF model at cooling mode. The value must be greater than 0. If this field is left blank, a default coefficient of performance of 3.3 is assumed.\n+\n+####Field: Reference Heating COP\n+\n+This numeric field defines the heating coefficient of performance at rated conditions. This value is only used for the initialization of the physics based VRF model at heating mode. The value must be greater than 0. If this field is left blank, a default coefficient of performance of 3.4 is assumed.\n+\n+####Field: Minimum Outdoor Air Temperature in Cooling Mode\n+\n+This numeric field defines the minimum outdoor dry-bulb temperature allowed for cooling operation. Below this temperature, cooling is disabled. If this field is left blank, the default value is -6ºC.\n+\n+####Field: Maximum Outdoor Air Temperature in Cooling Mode\n+\n+This numeric field defines the maximum outdoor dry-bulb temperature allowed for cooling operation. Above this temperature, cooling is disabled. If this field is left blank, the default value is 43ºC.\n+\n+####Field: Minimum Outdoor Air Temperature in Heating Mode\n+\n+This numeric field defines the minimum outdoor temperature allowed for heating operation. Below this temperature, heating is disabled. If this field is left blank, the default value is -20ºC.\n+\n+####Field: Maximum Outdoor Air Temperature in Heating Mode\n+\n+This numeric field defines the maximum outdoor temperature allowed for heating operation. Above this temperature, heating is disabled. If this field is left blank, the default value is 16ºC.\n+\n+#### Field: Outdoor Unit Reference Superheating \n+\n+This numeric field defines the reference superheating degrees of the outdoor unit. If this field is blank, the default value of 3.0ºC is used. \n+\n+#### Field: Outdoor Unit Reference Subcooling \n+\n+This numeric field defines the reference subcooling degrees of the outdoor unit. If this field is blank, the default value of 3.0ºC is used. \n+\n+#### Field: Refrigerant Temperature Control Algorithm for Indoor Unit\n+\n+This alpha field specifies the algorithm for the refrigerant temperature control. Two choices are available: ConstantTemp or VariableTemp. The indoor unit evaporating temperature at cooling mode or condensing temperature at heating are fixed in the ConstantTemp algorithm, while in VariableTemp algorithm they can be varied.\n+\n+#### Field: Reference Evaporating Temperature for Indoor Unit \n+\n+This numeric field defines the reference evaporating temperature for the indoor unit when VRF runs at cooling mode. This field is required if Refrigerant Temperature Control Algorithm is ConstantTemp. If this field is blank, the default value of 6.0ºC is used.\n+\n+#### Field: Reference Condensing Temperature for Indoor Unit \n+\n+This numeric field defines the reference condensing temperature for the indoor unit when VRF runs at heating mode. This field is required if Refrigerant Temperature Control Algorithm is ConstantTemp. If this field is blank, the default value of 44.0ºC is used.\n+\n+#### Field: Variable Evaporating Temperature Minimum for Indoor Unit\n+\n+This numeric field defines the minimum evaporating temperature for the indoor unit when VRF runs at cooling mode. This field is required if Refrigerant Temperature Control Algorithm is VariableTemp. If this field is blank, the default value of 4.0ºC is used.\n+\n+#### Field: Variable Evaporating Temperature Maximum for Indoor Unit\n+\n+This numeric field defines the maximum evaporating temperature for the indoor unit when VRF runs at cooling mode. This field is required if Refrigerant Temperature Control Algorithm is VariableTemp. If this field is blank, the default value of 13.0ºC is used.\n+\n+#### Field: Variable Condensing Temperature Minimum for Indoor Unit\n+\n+This numeric field defines the minimum condensing temperature for the indoor unit when VRF runs at heating mode. This field is required if Refrigerant Temperature Control Algorithm is VariableTemp. If this field is blank, the default value of 42.0ºC is used.\n+\n+#### Field: Variable Condensing Temperature Maximum for Indoor Unit\n+\n+This numeric field defines the maximum condensing temperature for the indoor unit when VRF runs at heating mode. This field is required if Refrigerant Temperature Control Algorithm is VariableTemp. If this field is blank, the default value of 46.0ºC is used.\n+\n+#### Field: Outdoor Unit Fan Object Type\n+\n+This alpha field defines the type of fan in the VRF outdoor unit. The only valid choices are *Fan:OnOff* and *Fan:ConstantVolume*. The input requirements for these fan objects are described elsewhere in this document.\n+\n+#### Field: Outdoor Unit Fan Object Name\n+\n+This alpha field defines the name of the fan component implemented in the VRF outdoor unit. It should match the name specified in the corresponding fan object.\n+\n+#### Field: Outdoor Unit Evaporating Temperature Function of Superheating Curve Name    \n+\n+This alpha field defines the name of a quadratic performance curve that parameterizes the variation of outdoor unit evaporating temperature as a function of superheating degrees. The output of this curve is the temperature difference between the coil surface air temperature and the evaporating temperature.\n+\n+#### Field: Outdoor Unit Condensing Temperature Function of Subcooling Curve Name    \n+\n+This alpha field defines the name of a quadratic performance curve that parameterizes the variation of outdoor unit condensing temperature as a function of subcooling degrees. The output of this curve is the temperature difference between the condensing temperature and the coil surface air temperature.\n+\n+#### Field: Diameter of main pipe connecting outdoor unit to indoor units\n+\n+This numeric field defines the diameter of main pipe connecting outdoor unit to indoor units. This value is used to calculate the piping loss of the refrigerant when going through the main pipe, including the heat loss and pressure drop. If this field is blank, the default value of 0.0254m is used.\n+\n+#### Field: Length of main pipe connecting outdoor unit to indoor units\n+\n+This numeric field defines the length of main pipe connecting outdoor unit to indoor units. This value is used to calculate the heat loss of the refrigerant when going through the main pipe. The value should be greater than 0. If this field is blank, the default value of 30m is used.\n+\n+#### Field: Equivalent length of main pipe connecting outdoor unit to indoor units\n+\n+This numeric field defines the equivalent length of main pipe connecting outdoor unit to indoor units. This value is used to calculate the pressure drop of the refrigerant when going through the main pipe. The value should be greater than the real pipe length specified in the above field. If this field is blank, the default value of 36m is used.\n+\n+#### Field: Height difference between the outdoor unit node and indoor unit node of the main pipe\n+\n+This numeric field defines the height difference between the outdoor unit node and indoor unit node of the main pipe. This value is used to calculate the piping loss of the refrigerant when going through the main pipe. The value can be positive, zero, or negative. Positive means outdoor unit is higher than indoor unit, while negative means outdoor unit is lower than indoor unit.\n+\n+#### Field: Insulation thickness of the main pipe\n+\n+This numeric field defines the insulation thickness of the main pipe. This value is used to calculate the heat loss of the refrigerant when going through the main pipe. The value should be greater than 0. If this field is blank, the default value of 0.02m is used.\n+\n+#### Field: Thermal conductivity of the main pipe insulation material\n+\n+This numeric field defines the thermal conductivity of the main pipe insulation material. This value is used to calculate the heat loss of the refrigerant when going through the main pipe. The value should be greater than 0. If this field is blank, the default value of 0.032 W/m-K is used.\n+\n+#### Field: Crankcase Heater Power per Compressor\n+\n+This numeric field defines the electrical power consumed by the crankcase heater in watts for each compressor. This crankcase heater power is consumed to warm the refrigerant and oil when the compressor is off when the outdoor temperature is below the maximum outdoor dry-bulb temperature for crankcase heater operation. The minimum value for this field is 0. If this field is left blank, the default value is 33 watts. Crankcase heater electrical consumption is applied only when the compressor is off or is applied during the off cycle when the compressor is cycling below the Minimum Heat Pump Part-Load Ratio. This field is only used to calculate crankcase heater power and has no impact on heat pump performance.\n+\n+#### Field: Number of Compressors\n+\n+This numeric field defines the number of compressors in the heat pump condensing unit and is used exclusively to determine the operating characteristics of the crankcase heater. For example, if the number of compressors is 3, one crankcase heater will operate when the heat pump condensing unit’s part-load ratio is less than or equal to 0.67 (when the ratio of compressor size to total compressor capacity input is 0.33) and the outdoor temperature is below the maximum outdoor temperature for crankcase heater operation. Similarly, two crankcase heaters will operate when the heat pump condensing unit’s PLR is less than or equal to 0.33 and the outdoor temperature is below the maximum outdoor temperature for crankcase heater operation. If the heat pump condensing unit is off, all 3 crankcase heaters will operate if the outdoor temperature is below the maximum outdoor temperature for crankcase heater operation. The minimum value for this field is 1. If this field is left blank, the default value is 2. This field is only used to calculate crankcase heater power and has no impact on heat pump performance.\n+\n+#### Field: Ratio of Compressor Size to Total Compressor Capacity\n+\n+This numeric field defines the size of the first stage compressor to the total compressor capacity and is used exclusively for calculating crankcase heater energy. If this field and the previous field are left blank, the default value is 0.5.  If this field is left blank and the previous field is not blank, the compressors are assumed to be equally sized. When the number of compressors is greater than 2, the 2<sup>nd</sup> stage compressor and all additional compressors are assumed to be equally sized. This field is only used to calculate crankcase heater power and has no impact on heat pump performance.\n+\n+#### Field: Maximum Outdoor Dry-bulb Temperature for Crankcase Heater\n+\n+This numeric field defines the maximum outdoor temperature, in degrees Celsius, below which the crankcase heater will operate. If this field is left blank, the default value is 5°C. This field is only used to calculate crankcase heater power and has no impact on heat pump performance.\n+\n+#### Field: Defrost Strategy\n+\n+This alpha field has two choices: reverse-cycle or resistive. If the reverse-cycle strategy is selected, the heating cycle is reversed periodically to provide heat to melt frost accumulated on the outdoor coil. If a resistive defrost strategy is selected, the frost is melted using an electric resistance heater. If this input field is left blank, the default defrost strategy is reverse-cycle. Defrost can be disabled by entering a resistive defrost strategy using a timed defrost control, a 0 defrost time period fraction and a 0 resistive defrost heater capacity in the following inputs fields. This method is used when the Maximum Outdoor Dry-Bulb Temperature for Defrost Operation field value is greater than the expected minimum outdoor dry-bulb temperature simulated in the weather file.\n+\n+#### Field: Defrost Control\n+\n+This alpha field has two choices: timed or on-demand. If timed control is selected, the defrost time period is calculated based on a fixed value of compressor runtime whether or not frost has actually accumulated. For timed defrost control, the fractional amount of time the unit is in defrost is entered in the input field “Defrost Time Period Fraction” described below. If on-demand defrost control is selected, the defrost time period is calculated based on outdoor weather (humidity ratio) conditions. Regardless of which defrost control is selected, defrost does not occur above the user specified outdoor temperature entered in the input field “Maximum Outdoor Dry-bulb Temperature for Defrost Operation” described above. If this input field is left blank, the default defrost control is timed.\n+\n+#### Field: Defrost Energy Input Ratio Modifier Function of Temperature Curve Name\n+\n+This alpha field defines the name of a bi-quadratic performance curve (ref: Performance Curves) that parameterizes the variation of the energy input ratio (EIR) during reverse-cycle defrost periods as a function of the outdoor air dry-bulb temperature and the weighted average wet-bulb temperature of the air entering the indoor terminal units. The output of this curve is multiplied by the coil capacity, the fractional defrost time period and the runtime fraction of the heating coil to give the defrost power at the specific temperatures at which the indoor and outdoor coils are operating. The curve is normalized to a value of 1.0 at the rating point conditions.\n+\n+#### Field: Defrost Time Period Fraction\n+\n+This numeric field defines the fraction of compressor runtime when the defrost cycle is active. For example, if the defrost cycle is active for 3.5 minutes for every 60 minutes of compressor runtime, then the user should enter 3.5/60 = 0.058333. The value for this input field must be greater than or equal to 0. If this input field is left blank, the default value is 0.058333.\n+\n+#### Field: Resistive Defrost Heater Capacity\n+\n+This numeric field defines the capacity of the resistive defrost heating element in Watts. This input field is used only when the selected defrost strategy is ‘resistive’ (see input field “Defrost Strategy” above). The value for this input field must be greater than or equal to 0. If this input field is left blank, the default value is 0.\n+\n+#### Field: Maximum Outdoor Dry-bulb Temperature for Defrost Operation\n+\n+This numeric field defines the outdoor air dry-bulb temperature above which outdoor coil defrosting is disabled. If this input field is left blank, the default value is 5°C. Defrost can be completely eliminated by selecting a temperature lower than the minimum expected outdoor temperature found in the weather file.\n+\n+#### Field: Compressor maximum delta Pressure\n+\n+This numeric field defines the maximum pressure increase that the compressor can provide. The value should be greater than 0. If this field is blank, the default value of 4500 kPa is used.\n+\n+#### Field: Number of Compressor Loading Index Entries\n+\n+This numeric field defines the number of compressor loading index entries. Loading index specifies the VRF operational modes at various load conditions. In a single compressor system, loading index reflects the compressor speed. The model requires at least two loading indices. The first index represents the minimal capacity operation, while the last index represents full capacity operation.\n+\n+#### Field: Compressor Speed at Loading Index i \n+\n+This numeric field defines the compressor speed at the i-th loading index. The value must be greater than 0.\n+\n+#### Field: Loading Index i Evaporative Capacity Function of Temperature Curve Name\n+\n+This alpha field defines the name of a BiQuadratic curve for the VRF operational mode corresponding to the i-th loading index. It parameterizes the variation of VRF evaporating capacity as a function of operating conditions, i.e., evaporating and condensing temperatures. The output of this curve is the capacity of the VRF system evaporator.\n+\n+#### Field: Loading Index i Compressor Power Function of Temperature Curve Name\n+\n+This alpha field defines the name of a BiQuadratic curve for the VRF operational mode corresponding to the i-th loading index. It parameterizes the variation of compressor power as a function of operating conditions, i.e., evaporating and condensing temperatures. The output of this curve is the compressor power.\n+Following is an example input for a AirConditioner:VariableRefrigerantFlow system.\n+","path":"doc/src/docs/InputOutputReference/01c-InputOutputReference.md","position":247,"original_position":247,"commit_id":"755740d70f1f70374893558d923439582d4d6dac","original_commit_id":"755740d70f1f70374893558d923439582d4d6dac","user":{"login":"rraustad","id":5778156,"avatar_url":"https://avatars.githubusercontent.com/u/5778156?v=3","gravatar_id":"","url":"https://api.github.com/users/rraustad","html_url":"https://github.com/rraustad","followers_url":"https://api.github.com/users/rraustad/followers","following_url":"https://api.github.com/users/rraustad/following{/other_user}","gists_url":"https://api.github.com/users/rraustad/gists{/gist_id}","starred_url":"https://api.github.com/users/rraustad/starred{/owner}{/repo}","subscriptions_url":"https://api.github.com/users/rraustad/subscriptions","organizations_url":"https://api.github.com/users/rraustad/orgs","repos_url":"https://api.github.com/users/rraustad/repos","events_url":"https://api.github.com/users/rraustad/events{/privacy}","received_events_url":"https://api.github.com/users/rraustad/received_events","type":"User","site_admin":false},"body":"My mistake, name is correct.","created_at":"2015-08-27T19:16:58Z","updated_at":"2015-08-27T19:16:58Z","html_url":"https://github.com/NREL/EnergyPlus/pull/5026#discussion_r38135170","pull_request_url":"https://api.github.com/repos/NREL/EnergyPlus/pulls/5026","_links":{"self":{"href":"https://api.github.com/repos/NREL/EnergyPlus/pulls/comments/38135170"},"html":{"href":"https://github.com/NREL/EnergyPlus/pull/5026#discussion_r38135170"},"pull_request":{"href":"https://api.github.com/repos/NREL/EnergyPlus/pulls/5026"}}},"pull_request":{"url":"https://api.github.com/repos/NREL/EnergyPlus/pulls/5026","id":39989693,"html_url":"https://github.com/NREL/EnergyPlus/pull/5026","diff_url":"https://github.com/NREL/EnergyPlus/pull/5026.diff","patch_url":"https://github.com/NREL/EnergyPlus/pull/5026.patch","issue_url":"https://api.github.com/repos/NREL/EnergyPlus/issues/5026","number":5026,"state":"open","locked":false,"title":"91977808 New VRF model","user":{"login":"rongpengzhang","id":7785946,"avatar_url":"https://avatars.githubusercontent.com/u/7785946?v=3","gravatar_id":"","url":"https://api.github.com/users/rongpengzhang","html_url":"https://github.com/rongpengzhang","followers_url":"https://api.github.com/users/rongpengzhang/followers","following_url":"https://api.github.com/users/rongpengzhang/following{/other_user}","gists_url":"https://api.github.com/users/rongpengzhang/gists{/gist_id}","starred_url":"https://api.github.com/users/rongpengzhang/starred{/owner}{/repo}","subscriptions_url":"https://api.github.com/users/rongpengzhang/subscriptions","organizations_url":"https://api.github.com/users/rongpengzhang/orgs","repos_url":"https://api.github.com/users/rongpengzhang/repos","events_url":"https://api.github.com/users/rongpengzhang/events{/privacy}","received_events_url":"https://api.github.com/users/rongpengzhang/received_events","type":"User","site_admin":false},"body":"##### Introduction of the New VRF-HP Model #####\r\nThe proposed new feature introduces a new model to simulate the energy performance of Variable Refrigerant Flow (VRF) systems in the heat pump (HP) operation mode (either cooling or heating is provided but not simultaneously). \r\n\r\nCompared with the existing VRF-HP model in EnergyPlus, the proposed model is more physics-based and thus able to consider the dynamics of more operational parameters, which is essential for the description of many enhanced control logics (e.g., the adjustment of superheating degrees during small load operations). Furthermore, the proposed model implements component-level curves rather than the system-level curves, and thus requires fewer curves as model inputs. The definition of VRF performance data for simulation as part of ASHRAE Standard 205 will ensure VRF manufacturers provide adequate data to create the required performance curves.\r\n\r\nThe new VRF model will be an alternative for the users. We propose to add the new VRF heat pump model in EnergyPlus for the Fall 2015 release, while keeping the existing VRF model intact. 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