Adiabatic Modeling of Surfaces

[c0nb4]

Is your feature request related to a problem? Please describe.

If a builiding is touching another buiding, the wall should be considered adiabatic and there should be zero heat transfer. Additionally, there should be no windows.

Describe the solution you'd like

Set windows on that side to zero. Set the wall to inner wall.

Describe alternatives you've considered
A clear and concise description of any alternative solutions or features you've considered.

Additional context
Add any other context or screenshots about the feature request here.

[c0nb4]

To actually model this issue, this one needs to be solved first: #24

[c0nb4]

https://github.com/c0nb4/CityDPC

• use this library for adiabaitc surfaces

[c0nb4]

This is an exemplary envelope model:

import pprint

data = {
'U': {
'window': 1.0908802411837044,
'opaque': {
'intFloor': [],
'wall': 0.14695810489435882,
'ceiling': [],
'floor': 0.1493979332138456,
'roof': 0.11213755540129226,
'intWall': []
}
},
'd': {
'window': [0.56170909],
'opaque': {
'intFloor': [0.04, 0.06, 0.16],
'wall': [0.24, 0.21, 0.01],
'ceiling': [0.16, 0.06, 0.04],
'floor': [0.03, 0.04, 0.22, 0.16],
'roof': [0.02, 0.3, 0.02],
'intWall': [0.01, 0.15, 0.01]
}
},
'd_iso': {
'window': [],
'opaque': {
'intFloor': 0.26,
'wall': 0.45999999999999996,
'ceiling': 0.26,
'floor': 0.45000000000000007,
'roof': 0.34,
'intWall': 0.17
}
},
'rho': {
'window': [0.0],
'opaque': {
'intFloor': [1990.0, 15.0, 2420.0],
'wall': [1100.0, 39.5, 280.0],
'ceiling': [2420.0, 15.0, 1990.0],
'floor': [740.46, 1940.0, 39.5, 2104.2],
'roof': [528.0, 39.5, 1650.0],
'intWall': [1600.0, 695.0, 1600.0]
}
},
'cp': {
'window': [0.0],
'opaque': {
'intFloor': [1000.0, 1500.0, 1000.0],
'wall': [1050.0, 1450.0, 1000.0],
'ceiling': [1000.0, 1500.0, 1000.0],
'floor': [1600.0, 1000.0, 1450.0, 775.8458],
'roof': [1700.0, 1450.0, 850.0],
'intWall': [850.0, 850.0, 850.0]
}
},
'Lambda': {
'window': [0.76],
'opaque': {
'intFloor': [1.4, 0.04, 2.1],
'wall': [0.488, 0.035, 0.07],
'ceiling': [2.1, 0.04, 1.4],
'floor': [0.18, 1.4, 0.035, 1.9375],
'roof': [0.14, 0.035, 0.6],
'intWall': [0.7, 0.13, 0.7]
}
},
'kappa': {
'window': [],
'opaque': {
'intFloor': 80950.00000000001,
'wall': 115500.0,
'ceiling': 242000.0,
'floor': 114860.33000000002,
'roof': 22534.0,
'intWall': 57906.25
}
},
'g_gl': {
'window': 0.6,
'opaque': {
'intFloor': [],
'wall': [],
'ceiling': [],
'floor': [],
'roof': [],
'intWall': []
}
},
'R_se': {
'window': 0.0476,
'opaque': {
'intFloor': [],
'wall': 0.04,
'ceiling': [],
'floor': 0.0,
'roof': 0.04,
'intWall': []
}
},
'R_si': {
'window': 0.13,
'opaque': {
'intFloor': [],
'wall': 0.13,
'ceiling': [],
'floor': 0.13,
'roof': 0.13,
'intWall': []
}
},
'epsilon': {
'window': 0.9,
'opaque': {
'intFloor': [],
'wall': 0.9,
'ceiling': [],
'floor': 0.9,
'roof': 0.9,
'intWall': []
}
},
'alpha_Sc': {
'window': [],
'opaque': {
'intFloor': [],
'wall': 0.6,
'ceiling': [],
'floor': 0.6,
'roof': 0.6,
'intWall': []
}
},
'prj': '<teaser.project.Project object at 0x0000012F8A77AD50>',
'id': 1,
'construction_year': 2022,
'construction_type': 'tabula_retrofit',
'retrofit': 1,
'usage_short': 'SFH',
'file_path': 'C:\Users\felix\Programmieren\tecdm\src\districtgenerator\data',
'teaser_id': 0,
'c_p_air': 1000.0,
'rho_air': 1.2,
'T_set_min': 20.0,
'T_set_max': 26.0,
'ventilationRate': 0.5,
'T_bivalent': -2.0,
'T_heatlimit': 15.0,
'attributes': [
{
'window': [0.56170909],
'opaque': {
'intFloor': [0.04, 0.06, 0.16],
'wall': [0.24, 0.21, 0.01],
'ceiling': [0.16, 0.06, 0.04],
'floor': [0.03, 0.04, 0.22, 0.16],
'roof': [0.02, 0.3, 0.02],
'intWall': [0.01, 0.15, 0.01]
}
},
{
'window': [],
'opaque': {
'intFloor': 0.26,
'wall': 0.45999999999999996,
'ceiling': 0.26,
'floor': 0.45000000000000007,
'roof': 0.34,
'intWall': 0.17
}
},
{
'window': [0.0],
'opaque': {
'intFloor': [1990.0, 15.0, 2420.0],
'wall': [1100.0, 39.5, 280.0],
'ceiling': [2420.0, 15.0, 1990.0],
'floor': [740.46, 1940.0, 39.5, 2104.2],
'roof': [528.0, 39.5, 1650.0],
'intWall': [1600.0, 695.0, 1600.0]
}
},
{
'window': [0.0],
'opaque': {
'intFloor': [1000.0, 1500.0, 1000.0],
'wall': [1050.0, 1450.0, 1000.0],
'ceiling': [1000.0, 1500.0, 1000.0],
'floor': [1600.0, 1000.0, 1450.0, 775.8458],
'roof': [1700.0, 1450.0, 850.0],
'intWall': [850.0, 850.0, 850.0]
}
},
{
'window': [0.76],
'opaque': {
'intFloor': [1.4, 0.04, 2.1],
'wall': [0.488, 0.035, 0.07],
'ceiling': [2.1, 0.04, 1.4],
'floor': [0.18, 1.4, 0.035, 1.9375],
'roof': [0.14, 0.035, 0.6],
'intWall': [0.7, 0.13, 0.7]
}
},
{
'window': 1.0908802411837044,
'opaque': {
'intFloor': [],
'wall': 0.14695810489435882,
'ceiling': [],
'floor': 0.1493979332138456,
'roof': 0.11213755540129226,
'intWall': []
}
},
{
'window': [],
'opaque': {
'intFloor': 80950.00000000001,
'wall': 115500.0,
'ceiling': 242000.0,
'floor': 114860.33000000002,
'roof': 22534.0,
'intWall': 57906.25
}
},
{
'window': 0.0476,
'opaque': {
'intFloor': [],
'wall': 0.04,
'ceiling': [],
'floor': 0.0,
'roof': 0.04,
'intWall': []
}
},
{
'window': 0.13,
'opaque': {
'intFloor': [],
'wall': 0.13,
'ceiling': [],
'floor': 0.13,
'roof': 0.13,
'intWall': []
}
},
{
'window': 0.9,
'opaque': {
'intFloor': [],
'wall': 0.9,
'ceiling': [],
'floor': 0.9,
'roof': 0.9,
'intWall': []
}
},
{
'window': [],
'opaque': {
'intFloor': [],
'wall': 0.6,
'ceiling': [],
'floor': 0.6,
'roof': 0.6,
'intWall': []
}
},
{
'window': 0.6,
'opaque': {
'intFloor': [],
'wall': [],
'ceiling': [],
'floor': [],
'roof': [],
'intWall': []
}
}
],
'opaque_ext': ['wall', 'roof', 'floor'],
'opaque': {'intWall', 'ceiling', 'roof', 'wall', 'intFloor', 'floor'},
'V': 584.375,
'A': {
'f': 187.0,
'opaque': {
'south': 122.844975,
'north': 56.89475,
'west': 122.844975,
'east': 56.89475,
'roof': 129.359868,
'floor': 107.79989,
'wall': 359.47945000000004,
'intFloor': 187.0,
'ceiling': 107.79989,
'intWall': 539.2191750000001
},
'window': {
'south': 10.50005,
'north': 10.50005,
'west': 10.50005,
'east': 10.50005,
'roof': 0.0,
'floor': 0.0,
'sum': 42.0002
}
}
}

pprint.pprint(data)

[c0nb4]

TECDME can now export the data, in the wished structure. Provide working examples for the attached test data:

• Example detailed dataset -> contains the TECDEM output
• Example Geometry Analysis -> Conatins the geometric information

Small_example_detailed_dataset.csv
Small_example_geometry_analysis.json