def set_pipe_lengths(self, _input=[], _ghdoc=None, _ghenv=None):
"""Will try and find the lengths of the things input
Arguments:
_input: (float: curve:) If input is number, uses that. Otherwise gets curve from Rhino
_ghdoc: (ghdoc)
_ghenv: (ghenv)
"""
output = []
with context_rh_doc( _ghdoc ):
for geom_input in _input:
try:
output.append( float(convert_value_to_metric(geom_input, 'M')) )
except AttributeError as e:
crv = rs.coercecurve(geom_input)
if crv:
pipeLen = ghc.Length(crv)
else:
pipeLen = False
if not pipeLen:
crvWarning = "Something went wrong getting the Pipe Geometry length?\n"\
"Please ensure you are passing in only curves / polyline objects or numeric values.?"
_ghenv.Component.AddRuntimeMessage(ghK.GH_RuntimeMessageLevel.Warning, crvWarning)
else:
output.append(pipeLen)
self.length = output
def set_values_from_Rhino(self, _inputs, _ghenv, _input_num=0):
""" Will try and pull relevant data for the Recirc loop from the Rhino scene
Arguments:
_inputs: (float: curve:)
_ghenv: (ghenv)
_input_num: (int) The index (zero based) of the GH Component input to look at
"""
def cleanPipeDimInputs(_diam, _thickness):
# Clean diam, thickness
if _diam != None:
if " (" in _diam:
_diam = float( _diam.split(" (")[0] )
if _thickness != None:
if " (" in _thickness:
_thickness = float( _thickness.split(" (")[0] )
return _diam, _thickness
# First, see if I can pull any data from the Rhino scene?
# Otherwise, if its just a number, use that as the length
lengths, diams, insul_thks, insul_lambdas, refectives = [], [], [], [], []
for i, input in enumerate( _inputs ):
try:
lengths.append( float(convert_value_to_metric( input, 'M' )) )
except AttributeError as e:
try:
rhinoGuid = _ghenv.Component.Params.Input[_input_num].VolatileData[0][i].ReferenceID
rh_obj = Rhino.RhinoDoc.ActiveDoc.Objects.Find( rhinoGuid )
length = float(rh_obj.CurveGeometry.GetLength())
k = rs.GetUserText(rh_obj, 'insulation_conductivity')
r = rs.GetUserText(rh_obj, 'insulation_reflective')
t = rs.GetUserText(rh_obj, 'insulation_thickness')
d = rs.GetUserText(rh_obj, 'pipe_diameter')
d, t = cleanPipeDimInputs(d, t)
lengths.append(length)
diams.append(d)
insul_thks.append(t)
insul_lambdas.append(k)
refectives.append(r)
except Exception as e:
msg = str(e)
msg += "\nSorry, I am not sure what to do with the input: {} in 'pipe_geom_'?\n"\
"Please input either a Curve or a number/numbers representing the pipe segments.".format(input)
_ghenv.Component.AddRuntimeMessage( ghK.GH_RuntimeMessageLevel.Warning, msg )
if lengths: self.lengths = lengths
if diams: self.diams = diams
if insul_thks: self.insul_thicknesses = insul_thks
if insul_lambdas: self.insul_conductivities = insul_lambdas
if refectives: self.insul_reflectives = refectives
def clean_input(_in, _nm, _unit='-', _ghenv=None):
try:
out = float(convert_value_to_metric(_in, _unit) )
if _nm == "tank_standby_frac_":
if out > 1:
msg = "Standby Units should be decimal fraction. ie: 30% should be entered as 0.30"
_ghenv.Component.AddRuntimeMessage(ghK.GH_RuntimeMessageLevel.Warning, msg)
return out/100
elif _nm == "diameter_":
if out > 1:
unitWarning = "Check diameter units? Should be in METERS not MM."
_ghenv.Component.AddRuntimeMessage(ghK.GH_RuntimeMessageLevel.Warning, unitWarning)
return out
except:
msg = '"{}" input should be a number'.format(_nm)
_ghenv.Component.AddRuntimeMessage(ghK.GH_RuntimeMessageLevel.Warning, msg)
return _in
def cleanInputs(_in, _nm, _default, _units='-'):
# Apply defaults if the inputs are Nones
out = _in if _in != None else _default
out = convert_value_to_metric(str(out), _units)
# Check that output can be float
try:
# Check units
if _nm == "thickness":
if float(out.ToString()) > 1:
unitWarning = "Check thickness units? Should be in METERS not MM."
ghenv.Component.AddRuntimeMessage(ghK.GH_RuntimeMessageLevel.Warning, unitWarning)
return float(out.ToString())
elif _nm == 'orientation':
return out
elif _nm == 'psi':
return str(out)
else:
return float(out.ToString())
except:
ghenv.Component.AddRuntimeMessage(ghK.GH_RuntimeMessageLevel.Error, '"{}" input should be a number'.format(_nm))
return out
def clean_input(_input, _unit):
val_list = [ convert_value_to_metric(val, _unit) for val in _input]
return val_list
the waste heat from the dehumidification unit will be considered as
an internal heat gain. On the contrary, dehumidification has no influence
on the thermal balance.
SEER_: Default=1. 1 litre water per kWh electricity result in an energy
efficiency ratio of 0.7. Good devices, e.g. with internal heat recovery,
achieve values of up to 2.
Returns:
dehumidCooling_:
"""
import LBT2PH
import LBT2PH.__versions__
import LBT2PH.heating_cooling
from LBT2PH.helpers import preview_obj
from LBT2PH.helpers import convert_value_to_metric
reload(LBT2PH)
reload(LBT2PH.__versions__)
reload(LBT2PH.heating_cooling)
reload(LBT2PH.helpers)
ghenv.Component.Name = "LBT2PH Cooling Dehumid"
LBT2PH.__versions__.set_component_params(ghenv, dev=False)
# ------------------------------------------------------------------------------
dehumid_cooling_ = LBT2PH.heating_cooling.PHPP_Cooling_Dehumid()
if waste_heat_to_room_: dehumid_cooling_.waste_to_room = waste_heat_to_room_
if SEER_: dehumid_cooling_.seer = convert_value_to_metric(SEER_, 'W/W')
preview_obj(dehumid_cooling_)
from LBT2PH.helpers import preview_obj
from LBT2PH.helpers import convert_value_to_metric
reload(LBT2PH)
reload(LBT2PH.__versions__)
reload(LBT2PH.heating_cooling)
reload(LBT2PH.helpers)
ghenv.Component.Name = "LBT2PH Heating HP Options"
LBT2PH.__versions__.set_component_params(ghenv, dev=False)
#-------------------------------------------------------------------------------
hp_options_ = LBT2PH.heating_cooling.PHPP_HP_Options()
if _design_forward_water_temp:
hp_options_.frwd_temp = convert_value_to_metric(_design_forward_water_temp,
'C')
if hp_distribution_: hp_options_.hp_distribution = hp_distribution_
if nom_power_:
hp_options_.nom_power = convert_value_to_metric(nom_power_, 'KW')
if rad_exponent_: hp_options_.rad_exponent = rad_exponent_
if backup_type_: hp_options_.backup_type = backup_type_
if dT_elec_flow_water_:
hp_options_.dT_elec_flow = convert_value_to_metric(dT_elec_flow_water_,
'C')
if hp_priority_: hp_options_.hp_priority = hp_priority_
if hp_control_: hp_options_.hp_control = hp_control_
if depth_groundwater_:
hp_options_.depth_groundwater = convert_value_to_metric(
depth_groundwater_, 'M')
if power_groundpump_:
hp_options_.power_groundwater = convert_value_to_metric(
# @license GPL-3.0+ <http://spdx.org/licenses/GPL-3.0+>
#
"""
Set the parameters for a Panel Cooling Element. Sets the values on the 'Cooling Unit' worksheet.
-
EM March 1, 2021
Args:
SEER_: (W/W) Default=3
Returns:
panelCooling_:
"""
import LBT2PH
import LBT2PH.__versions__
import LBT2PH.heating_cooling
from LBT2PH.helpers import preview_obj
from LBT2PH.helpers import convert_value_to_metric
reload( LBT2PH )
reload(LBT2PH.__versions__)
reload( LBT2PH.heating_cooling )
reload(LBT2PH.helpers)
ghenv.Component.Name = "LBT2PH Cooling Panel"
LBT2PH.__versions__.set_component_params(ghenv, dev=False)
#-------------------------------------------------------------------------------
panel_cooling_ = LBT2PH.heating_cooling.PHPP_Cooling_Panel()
if SEER_: panel_cooling_.seer = convert_value_to_metric(SEER_, 'W/W')
preview_obj(panel_cooling_)
_name: The name for the new Window Glazing object
_uValue: (List) Input value for the glazing U-Value (W/m2-k). Glass U-Value to be calculate as per EN-673 / ISO 10292
_gValue: (List) Input value for the glazing g-Value (SHGC) . Glass g-Value (~SHGC) to be calculate as per EN-410
Return:
PHPPGlazing_: A new PHPP-Style Glazing Object for use in a PHPP Window. Connect to the 'PHPP Apertures' Component.
"""
import LBT2PH
import LBT2PH.__versions__
import LBT2PH.windows
from LBT2PH.helpers import convert_value_to_metric
from LBT2PH.helpers import preview_obj
reload(LBT2PH)
reload(LBT2PH.__versions__)
reload(LBT2PH.windows)
reload(LBT2PH.helpers)
ghenv.Component.Name = "LBT2PH PHPP Aperture Glazing"
LBT2PH.__versions__.set_component_params(ghenv, dev=False)
#-------------------------------------------------------------------------------
if _name:
_name = _name.replace(" ", "_")
PHPPGlazing_ = LBT2PH.windows.PHPP_Glazing()
if _name: PHPPGlazing_.name = _name
if _gValue: PHPPGlazing_.gValue = convert_value_to_metric(_gValue, '-')
if _uValue: PHPPGlazing_.uValue = convert_value_to_metric(_uValue, 'W/M2K')
preview_obj(PHPPGlazing_)
if _temps_source: tsrcs = _temps_source
if _temps_sink: tsnks = _temps_sink
if _heating_capacities: hcs = _heating_capacities
if _COPs: cops = _COPs
#-------------------------------------------------------------------------------
# Create the Heat Pump Object
heat_pump_ = LBT2PH.heating_cooling.PHPP_HP_AirSource()
if _unit_name: heat_pump_.name = _unit_name
if _source: heat_pump_.source = _source
if tsrcs:
heat_pump_.temps_sources = [
convert_value_to_metric(val, 'C') for val in tsrcs
]
if tsnks:
heat_pump_.temps_sinks = [
convert_value_to_metric(val, 'C') for val in tsnks
]
if hcs:
heat_pump_.heating_capacities = [
convert_value_to_metric(val, 'KW') for val in hcs
]
if cops:
heat_pump_.cops = [convert_value_to_metric(val, 'W/W') for val in cops]
if dt_sink_: heat_pump_.sink_dt = convert_value_to_metric(dt_sink_, 'C')
for warning in heat_pump_.warnings:
ghenv.Component.AddRuntimeMessage(ghK.GH_RuntimeMessageLevel.Warning,
> bad devices: 2.5
> split units, energy efficiency class A: > 3.2
> compact units, energy efficiency class A: > 3.0
> turbo compressor > 500 kW with water cooling: up to more than 6
Returns:
supplyAirCooling_:
"""
import LBT2PH
import LBT2PH.__versions__
import LBT2PH.heating_cooling
from LBT2PH.helpers import preview_obj
from LBT2PH.helpers import convert_value_to_metric
reload(LBT2PH)
reload(LBT2PH.__versions__)
reload(LBT2PH.heating_cooling)
reload(LBT2PH.helpers)
ghenv.Component.Name = "LBT2PH Cooling Supply Air"
LBT2PH.__versions__.set_component_params(ghenv, dev=False)
#-------------------------------------------------------------------------------
supply_air_cooling_ = LBT2PH.heating_cooling.PHPP_Cooling_SupplyAir()
if on_off_mode_: supply_air_cooling_.on_off = on_off_mode_
if max_cooling_cap_:
supply_air_cooling_.max_capacity = convert_value_to_metric(
max_cooling_cap_, 'KW')
if SEER_: supply_air_cooling_.seer = convert_value_to_metric(SEER_, 'W/W')
preview_obj(supply_air_cooling_)
Returns:
recircAirCooling_:
"""
import scriptcontext as sc
import Grasshopper.Kernel as ghK
import LBT2PH
import LBT2PH.__versions__
import LBT2PH.heating_cooling
from LBT2PH.helpers import preview_obj
from LBT2PH.helpers import convert_value_to_metric
reload( LBT2PH )
reload(LBT2PH.__versions__)
reload( LBT2PH.heating_cooling )
reload(LBT2PH.helpers)
ghenv.Component.Name = "LBT2PH Cooling Recirc"
LBT2PH.__versions__.set_component_params(ghenv, dev=False)
#-------------------------------------------------------------------------------
recirc_air_cooling_ = LBT2PH.heating_cooling.PHPP_Cooling_RecircAir()
if on_off_mode_: recirc_air_cooling_.on_off = on_off_mode_
if max_cooling_cap_: recirc_air_cooling_.max_capacity = convert_value_to_metric(max_cooling_cap_, 'KW')
if vol_flow_at_nom_power_: recirc_air_cooling_.nominal_vol = convert_value_to_metric(vol_flow_at_nom_power_, 'M3/H')
if variable_vol_: recirc_air_cooling_.variable_vol = variable_vol_
if SEER_: recirc_air_cooling_.seer = convert_value_to_metric(SEER_, 'W/W')
preview_obj(recirc_air_cooling_)
