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IN NO EVENT SHALL THE COPYRIGHT HOLDER(S), ANY CONTRIBUTORS, THE # UNITED STATES GOVERNMENT, OR THE UNITED STATES DEPARTMENT OF ENERGY, NOR ANY OF # THEIR EMPLOYEES, BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, # EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT # OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS # INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, # STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY # OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. # ******************************************************************************* # see the URL below for information on how to write OpenStudio measures # http://openstudio.nrel.gov/openstudio-measure-writing-guide # see the URL below for information on using life cycle cost objects in OpenStudio # http://openstudio.nrel.gov/openstudio-life-cycle-examples # see the URL below for access to C++ documentation on model objects (click on "model" in the main window to view model objects) # http://openstudio.nrel.gov/sites/openstudio.nrel.gov/files/nv_hash/cpp_documentation_it/model/html/namespaces.html # load OpenStudio measure libraries from openstudio-extension gem require 'openstudio-extension' require 'openstudio/extension/core/os_lib_constructions' # load OpenStudio measure libraries require "#{File.dirname(__FILE__)}/resources/OsLib_AedgMeasures" # start the measure class ZEDGK12ExteriorDoorConstruction < OpenStudio::Measure::ModelMeasure include OsLib_AedgMeasures include OsLib_Constructions # define the name that a user will see, this method may be deprecated as # the display name in PAT comes from the name field in measure.xml def name return 'ZEDG K12 ExteriorDoorConstruction' end # define the arguments that the user will input def arguments(model) args = OpenStudio::Measure::OSArgumentVector.new # make an argument for material and installation cost material_cost_insulation_increase_ip = OpenStudio::Measure::OSArgument.makeDoubleArgument('material_cost_insulation_increase_ip', true) material_cost_insulation_increase_ip.setDisplayName('Increase Cost per Area of Construction Where Insulation was Improved ($/ft^2).') material_cost_insulation_increase_ip.setDefaultValue(0.0) args << material_cost_insulation_increase_ip return args end # define what happens when the measure is run def run(model, runner, user_arguments) super(model, runner, user_arguments) # use the built-in error checking if !runner.validateUserArguments(arguments(model), user_arguments) return false end # assign the user inputs to variables material_cost_insulation_increase_ip = runner.getDoubleArgumentValue('material_cost_insulation_increase_ip', user_arguments) # no validation needed for cost inputs, negative values are fine, however negative would be odd choice since this measure only improves vs. decreases insulation and SRI performance # global variables for costs expected_life = 25 years_until_costs_start = 0 material_cost_insulation_increase_si = OpenStudio.convert(material_cost_insulation_increase_ip, '1/ft^2', '1/m^2').get running_cost_insulation = 0 # prepare rule hash rules = [] # climate zone, door type, standards surface type, thermal transmittance (Btu/h·ft2·°F) # while metal roll up doors should be highly reflective the AEDG doesn't give a target. # Door # notes: doesn't matter if swinging or not rules << ['0', 'ExteriorDoor', 'NA', 0.37] # measure not setup to use cz 0 rules << ['1', 'ExteriorDoor', 'NA', 0.37] rules << ['2', 'ExteriorDoor', 'NA', 0.37] rules << ['3', 'ExteriorDoor', 'NA', 0.37] rules << ['4', 'ExteriorDoor', 'NA', 0.352] rules << ['5', 'ExteriorDoor', 'NA', 0.352] rules << ['6', 'ExteriorDoor', 'NA', 0.352] rules << ['7', 'ExteriorDoor', 'NA', 0.352] rules << ['8', 'ExteriorDoor', 'NA', 0.352] # SteelFramed # notes: overhead sliding and rollup have same targets rules << ['0', 'OverheadDoor', 'RollUp', 0.37] # measure not setup to use cz 0 rules << ['1', 'OverheadDoor', 'RollUp', 0.37] rules << ['2', 'OverheadDoor', 'RollUp', 0.37] rules << ['3', 'OverheadDoor', 'RollUp', 0.37] rules << ['4', 'OverheadDoor', 'RollUp', 0.352] rules << ['5', 'OverheadDoor', 'RollUp', 0.352] rules << ['6', 'OverheadDoor', 'RollUp', 0.352] rules << ['7', 'OverheadDoor', 'RollUp', 0.352] rules << ['8', 'OverheadDoor', 'RollUp', 0.352] # WoodFramed # notes: this will be catch all of user doesn't have roll up as standards surface type rules << ['0', 'OverheadDoor', 'Sliding', 0.37] # measure not setup to use cz 0 rules << ['1', 'OverheadDoor', 'Sliding', 0.37] rules << ['2', 'OverheadDoor', 'Sliding', 0.37] rules << ['3', 'OverheadDoor', 'Sliding', 0.37] rules << ['4', 'OverheadDoor', 'Sliding', 0.352] rules << ['5', 'OverheadDoor', 'Sliding', 0.352] rules << ['6', 'OverheadDoor', 'Sliding', 0.352] rules << ['7', 'OverheadDoor', 'Sliding', 0.352] rules << ['8', 'OverheadDoor', 'Sliding', 0.352] # make rule hash for cleaner code rulesHash = {} rules.each do |rule| rulesHash["#{rule[0]} #{rule[1]} #{rule[2]}"] = { 'conductivity_ip' => rule[3] } end # get climate zone climateZoneNumber = OsLib_AedgMeasures.getClimateZoneNumber(model, runner) # climateZoneNumber = "4" # this is just in for quick testing of different climate zones # return false with error if can't find climate zone number if climateZoneNumber == false return false end # get starting r-value startingRvaluesExtDoor = [] # flag for roof surface type for tips doorFlag = false overheadDoorRollUpFlag = false overheadDoorSlidingFlag = false # affected area counter insulation_affected_area = 0.0 # construction hashes (construction is key, value is array [thermal transmittance (Btu/h·ft2·°F),rule thermal transmittance (Btu/h·ft2·°F),classification string) doorConstructions = {} overheadDoorRollUpConstructions = {} overheadDoorSlidingConstructions = {} # this contains constructions that do not have a recognized Standards Construction Type otherConstructions = [] # loop through constructions constructions = model.getConstructions constructions.each do |construction| # skip if not used next if construction.getNetArea <= 0 # skip if not opaque next if !construction.isOpaque # get construction and standard constructionStandard = construction.standardsInformation # get intended surface and standards construction type intendedSurfaceType = constructionStandard.intendedSurfaceType constructionType = constructionStandard.standardsConstructionType # get conductivity conductivity_si = construction.thermalConductance.get r_value_ip = OpenStudio.convert(1 / conductivity_si, 'm^2*K/W', 'ft^2*h*R/Btu').get # check rules based on intended use and type if intendedSurfaceType.to_s == 'OverheadDoor' if constructionType.to_s == 'RollUp' # store starting values startingRvaluesExtDoor << r_value_ip overheadDoorRollUpFlag = true # test construction against rules ruleSet = rulesHash["#{climateZoneNumber} OverheadDoor RollUp"] if 1 / r_value_ip > ruleSet['conductivity_ip'] overheadDoorRollUpConstructions[construction] = { 'conductivity_ip' => 1 / r_value_ip, 'transmittance_ip_rule' => ruleSet['conductivity_ip'], 'classification' => 'overheadDoorRollUpConstructions' } end else # don't need to test, this is a catch all constructionType.to_s == "Sliding" # store starting values startingRvaluesExtDoor << r_value_ip overheadDoorSlidingFlag = true # test construction against rules ruleSet = rulesHash["#{climateZoneNumber} OverheadDoor Sliding"] if 1 / r_value_ip > ruleSet['conductivity_ip'] overheadDoorSlidingConstructions[construction] = { 'conductivity_ip' => 1 / r_value_ip, 'transmittance_ip_rule' => ruleSet['conductivity_ip'], 'classification' => 'overheadDoorSlidingConstructions' } end end elsif intendedSurfaceType.to_s == 'ExteriorDoor' # don't need to check standards construction type, all non overhead doors will be treated the same. # store starting values startingRvaluesExtDoor << r_value_ip doorFlag = true # test construction against rules ruleSet = rulesHash["#{climateZoneNumber} ExteriorDoor NA"] if 1 / r_value_ip > ruleSet['conductivity_ip'] doorConstructions[construction] = { 'conductivity_ip' => 1 / r_value_ip, 'transmittance_ip_rule' => ruleSet['conductivity_ip'], 'classification' => 'doorConstructions' } end end end # create warning if construction used on exterior wall doesn't have a surface type of "ExteriorWall", or if constructions tagged to be used as exterior wall, are used on other surface types otherConstructionsWarned = [] surfaces = model.getSurfaces surfaces.each do |surface| if !surface.construction.empty? construction = surface.construction.get if (surface.outsideBoundaryCondition == 'Outdoors') && (surface.surfaceType == 'Door') if otherConstructions.include?(construction) && (!otherConstructionsWarned.include? construction) runner.registerWarning("#{construction.name} is used on one or more exterior door surfaces but has an intended surface type that is not a door. We can not infer the proper performance target, this construction will not be altered.") otherConstructionsWarned << construction end elsif (surface.outsideBoundaryCondition == 'Outdoors') && (surface.surfaceType == 'OverheadDoor') if otherConstructions.include?(construction) && (!otherConstructionsWarned.include? construction) runner.registerWarning("#{construction.name} is used on one or more exterior overhead door surfaces but has an intended surface type that is not an overhead door. We can not infer the proper performance target, this construction will not be altered.") otherConstructionsWarned << construction end else if doorConstructions.include?(construction) || overheadDoorRollUpConstructions.include?(construction) || overheadDoorSlidingConstructions.include?(construction) runner.registerWarning("#{surface.name} uses #{construction.name} as a construction that this measure expects to be used for exterior doors. This surface has a type of #{surface.surfaceType} and a a boundary condition of #{surface.outsideBoundaryCondition}. This may result in unexpected changes to your model.") end end end end # alter constructions and add lcc constructionsToChange = doorConstructions.sort + overheadDoorRollUpConstructions.sort + overheadDoorSlidingConstructions.sort constructionsToChange.each do |construction, hash| # gather insulation inputs # gather target decrease in conductivity conductivity_ip_starting = hash['conductivity_ip'] conductivity_si_starting = OpenStudio.convert(conductivity_ip_starting, 'Btu/ft^2*h*R', 'W/m^2*K').get r_value_ip_starting = 1 / conductivity_ip_starting # ft^2*h*R/Btu r_value_si_starting = 1 / conductivity_si_starting # m^2*K/W conductivity_ip_target = hash['transmittance_ip_rule'].to_f conductivity_si_target = OpenStudio.convert(conductivity_ip_target, 'Btu/ft^2*h*R', 'W/m^2*K').get r_value_ip_target = 1 / conductivity_ip_target # ft^2*h*R/Btu r_value_si_target = 1 / conductivity_si_target # m^2*K/W # infer insulation material to get input for target thickness minThermalResistance = OpenStudio.convert(0.25, 'ft^2*h*R/Btu', 'm^2*K/W').get # lowered min to 0.25 here vs. 1.0 that was used in wall and roof measures. inferredInsulationLayer = OsLib_Constructions.inferInsulationLayer(construction, minThermalResistance) rvalue_si_deficiency = r_value_si_target - r_value_si_starting # add lcc for insulation lcc_mat_insulation = OpenStudio::Model::LifeCycleCost.createLifeCycleCost("LCC_Mat_Insulation - #{construction.name}", construction, material_cost_insulation_increase_si, 'CostPerArea', 'Construction', expected_life, years_until_costs_start) lcc_mat_insulation_value = lcc_mat_insulation.get.totalCost running_cost_insulation += lcc_mat_insulation_value # adjust existing material or add new one if (inferredInsulationLayer['insulationFound'] && (hash['classification'] == 'doorConstructions')) || (inferredInsulationLayer['insulationFound'] && (hash['classification'] == 'metalConstructions')) # if insulation layer was found # gather inputs for method target_material_rvalue_si = inferredInsulationLayer['construction_thermal_resistance'] + rvalue_si_deficiency # run method to change insulation layer thickness in cloned material (material,starting_r_value_si,target_r_value_si, model) new_material = OsLib_Constructions.setMaterialThermalResistance(inferredInsulationLayer['construction_layer'], target_material_rvalue_si) # connect new material to original construction construction.eraseLayer(inferredInsulationLayer['layer_index']) construction.insertLayer(inferredInsulationLayer['layer_index'], new_material) # get conductivity final_conductivity_si = construction.thermalConductance.get final_r_value_ip = OpenStudio.convert(1 / final_conductivity_si, 'm^2*K/W', 'ft^2*h*R/Btu').get # report on edited material runner.registerInfo("The R-value of #{construction.name} has been increased from #{OpenStudio.toNeatString(r_value_ip_starting, 2, true)} to #{OpenStudio.toNeatString(final_r_value_ip, 2, true)}(ft^2*h*R/Btu) at a cost of $#{OpenStudio.toNeatString(lcc_mat_insulation_value, 2, true)}. Increased performance was accomplished by adjusting thermal resistance of #{new_material.name}.") else # inputs to pass to method conductivity = 0.045 # W/m*K thickness = rvalue_si_deficiency * conductivity # meters addNewLayerToConstruction_Inputs = { 'roughness' => 'MediumRough', 'thickness' => thickness, # meters, 'conductivity' => conductivity, # W/m*K 'density' => 265.0, 'specificHeat' => 836.8, 'thermalAbsorptance' => 0.9, 'solarAbsorptance' => 0.7, 'visibleAbsorptance' => 0.7 } # create new material if can't infer insulation material (construction,thickness, conductivity, density, specificHeat, roughness,thermalAbsorptance, solarAbsorptance,visibleAbsorptance,model) newMaterialLayer = OsLib_Constructions.addNewLayerToConstruction(construction, addNewLayerToConstruction_Inputs) # get conductivity final_conductivity_si = construction.thermalConductance.get final_r_value_ip = OpenStudio.convert(1 / final_conductivity_si, 'm^2*K/W', 'ft^2*h*R/Btu').get # report on edited material runner.registerInfo("The R-value of #{construction.name} has been increased from #{OpenStudio.toNeatString(r_value_ip_starting, 2, true)} to #{OpenStudio.toNeatString(final_r_value_ip, 2, true)}(ft^2*h*R/Btu) at a cost of $#{OpenStudio.toNeatString(lcc_mat_insulation_value, 2, true)}. Increased performance was accomplished by adding a new material layer to the outside of #{construction.name}.") end # add to area counter insulation_affected_area += construction.getNetArea # OpenStudio handles matched surfaces so they are not counted twice. end # reporting initial condition of model startingRvalue = startingRvaluesExtDoor if startingRvalue.empty? runner.registerAsNotApplicable('The model has no exterior doors') return true else runner.registerInitialCondition("Starting R-values for constructions intended for exterior door surfaces range from #{OpenStudio.toNeatString(startingRvalue.min, 2, true)} to #{OpenStudio.toNeatString(startingRvalue.max, 2, true)}(ft^2*h*R/Btu).") end insulation_affected_area_ip = OpenStudio.convert(insulation_affected_area, 'm^2', 'ft^2').get runner.registerFinalCondition("#{OpenStudio.toNeatString(insulation_affected_area_ip, 0, true)}(ft^2) of constructions intended for exterior door surfaces had insulation enhanced at a cost of $#{OpenStudio.toNeatString(running_cost_insulation, 0, true)}.") return true end end # this allows the measure to be use by the application ZEDGK12ExteriorDoorConstruction.new.registerWithApplication