Dana Higro

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  • 8/6/2019 Dana Higro

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    This calculation has been carried out using the program comissioned by the Saint-Gobain Isover Hungaria Ltd

    Input data

    GeometryBiggest floor area:

    Brutto floor area:

    Net floor area:

    Heated floor area:

    Average ceiling height:

    Building perimeter:

    Lowest floor slab

    Floor slab on the soil:

    Unheated basement:

    Heated space:

    Unheated space:

    Arcade:

    Vertical insulation

    Geodetic height:

    Thermal resistance:

    Depth of thermal insulation:

    Horizontal insulation

    Geodetic height:

    Thermal resistance:

    142 [m2]

    142 [m2]

    142 [m2]

    142 [m2]

    2.70 [m]

    43.0 [m]

    142 [m2]

    0 [m2]

    0 [m2]

    0 [m2]

    0 [m2]

    0.30 [m]

    4.50 [m2K/W]

    0.50 [m]

    0.30 [m]

    4.00 [m2K/W]

    Roof:

    Pitched roof:

    Heated attic

    Density of internal partitions:

    Configuration in layout:

    Configuration in section:

    Garret with outer parapet

    Exists

    Exists

    Average

    Simple

    Compact

    Elevation areas:

    Wall between heated and unheated spaces:

    Elevation area, including exposed and facing to sunspace

    Facing to N:

    Facing to NE:

    Facing to E:

    Facing to SE::Facing to S:

    Facing to SW:

    Facing to W:

    Facing to NW:

    10 [m2]

    25 [m2]

    0 [m2]

    50 [m2]

    68 [m2]82 [m2]

    68 [m2]

    50 [m2]

    0 [m2]

    Facade elements in section Facade elements in projection

    N: None -----------

    E: None -----------

    SE: None -----------

    S: None -----------

    SW: None -----------

    W: None -----------

  • 8/6/2019 Dana Higro

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    This calculation has been carried out using the program comissioned by the Saint-Gobain Isover Hungaria Ltd

    Transparent elementsGlazing

    N: 4 [m2] Direct input (U=1.90 g=0.75)

    E: 3 [m2] triple glazing,wooden+Alu frame

    SE: 0 [m2] triple glazing,wooden+Alu frame

    S: 1 [m2] triple glazing,wooden+Alu frame

    SW: 0 [m2] triple glazing,wooden+Alu frame

    W: 4 [m2] triple glazing,wooden+Alu frame

    Mullion

    Orient. Mullion Perimeter/area Movable shading

    N: Sparse Average External blind

    E: Average Average External blind

    SE: Very sparse Very small Curtain

    S: Sparse High Direct input (R=0.18 g=0.30)

    SW: Very sparse Very small Curtain

    W: Average Average External blind

    Tilted glazing

    Orient. Area Tilt Window type

    NE: 3 [m2] 45 Medium 0.9 - 1.2 m2, 2 rtg

    SE: 3 [m2] 45 Direct input (U=2.10 g=0.40)

    Indirect systemsSunspace data:

    Orient. Area [m2] Window area [m2] ACH. [1/h] Window type Glazing type.

    Orient. Frame Roof Layout Movable shading

    Mass wall data:Orient. Area Mullion Glazing Night insulation Surface finishing

    Trombe wall data:

    Orient. Area Mullion Glazing Movable shading Surface finishing

    Transparent insulation data:Orient. Area Mullion Movable shading Transmittance TRI R Opaque wall R

    Solar accessSolar access:

    Orient. Building in layout Building in section Deciduous vegetation Evergreen vegetation

    N: none none none none

    E: none none none none

    SE: none none none none

    S: none none none none

    SW: none none none none

    W: none none none none

  • 8/6/2019 Dana Higro

    3/5

    This calculation has been carried out using the program comissioned by the Saint-Gobain Isover Hungaria Ltd

    Constructional dataConstructional data

    Floor covering in rooms, facing to

    Orient. Floor covering

    N: Medium

    E: Medium

    SE: Light

    S: Heavy

    SW: LightW: Medium

    Position of thermal insulation:

    Specific mass of exposed wall:

    Specific mass of floor slabs:

    Specific mass of partition walls:

    External

    1400-1700 kg/m3

    medium

    160-200 kg/m2

    Building useIndoor set temperature:

    Design external temperature:

    Air change per hour:

    Heat recovery:

    Building use:

    Heating system control:

    Number of occupants - conventional heat gain:

    20.0 [C]

    -13.0 [C]

    0.7 [1/h]

    None

    Residential

    average

    5 [capita]

    Summer ventilation of rooms facing to

    N: intensive

    E: intensive

    SE: not intensive

    S: intensive

    SW: not intensive

    W: intensive

    Fuel data:

    Fuel price per MJ:

    Heat value per other unit:

    Efficiency of heating system:

    3.0

    ------

    81.00

  • 8/6/2019 Dana Higro

    4/5

    This calculation has been carried out using the program comissioned by the Saint-Gobain Isover Hungaria Ltd

    Output

    Regarding summer overheating the thermal mass is :

    for N orientation

    for E orientation

    for S orientation

    for W orientation

    acceptable

    acceptable

    acceptable

    acceptable

    Heat transfer coefficient {thermal resistance}:

    Exposed walls: 0.25 { 4.00}

    Walls between heated and unheated spaces: 0.00 { 0.00}

    Heated attic envelope: 0.00 { 0.00}

    Heat load:

    Yearly heating energy cost:

    8.4 [kW]

    166401

    Average U value:

    Average thermal resistance:

    Average U value including thermal bridge effect:

    Average thermal resistance including thermal bridge effect:

    Transmission heat loss coefficient:

    Transmission heat loss coefficient per floor area:Transmission heat loss coefficient per volume:

    Heat loss coefficient:

    Heat loss coefficient per floor area:

    Heat loss coefficient per volume:

    Net balance of transmission losses and utilised direct solar gains:

    Net balance of transmission losses and utilised direct solar gains per floor area:

    Net balance of transmission losses and utilised direct solar gains per volume:

    Net heat loss coefficient:

    Net heat loss coefficient per floor area:

    Net heat loss coefficient per volume:

    Heating energy consumption per floor area:

    Heating energy consumption per volume:

    0.169 [W/m2K]

    5.905 [m2K/W]

    0.201 [W/m2K]

    4.965 [m2K/W]

    162.987 [W/K]

    1.148 [W/Km2]0.425 [W/Km3]

    254.236 [W/K]

    1.790 [W/Km2]

    0.663 [W/Km3]

    152.228 [W/K]

    1.072 [W/Km2]

    0.397 [W/Km3]

    165.722 [W/K]

    1.167 [W/Km2]

    0.432 [W/Km3]

    88 [W/m2]

    33 [W/m3]

    Informative data

    Month Total heat gain[kWh/day]

    Utilised heat gain[kWh/day]

    Heating energy consumption[kWh/month]

    1.

    2.

    3.

    4.

    5.

    6.

    7.

    8.

    9.

    10.

    11.

    12.

    Sum:

    28.5

    31.4

    35.6

    40.5

    --

    --

    --

    --

    --

    34.0

    29.7

    27.8

    28.5

    31.4

    34.9

    36.9

    --

    --

    --

    --

    --

    31.0

    29.7

    27.8

    3050.7

    2350.2

    1546.9

    486.2

    0.0

    0.0

    0.0

    0.0

    0.0

    590.9

    1781.2

    2674.0

    12480.0

  • 8/6/2019 Dana Higro

    5/5

    This calculation has been carried out using the program comissioned by the Saint-Gobain Isover Hungaria Ltd

    Energy consumption of auxiliary heating

    [kWh/month]

    1000.0

    2000.0

    3000.0

    4000.0

    5000.0

    1. 2. 3. 4. 5. 6. 7. 8. 9. 10. 11. 12.