4th street dormitory (bruininks hall) t square: t.daniel

1
Grid Post tensioned concrete with concrete topping Radiant heat tubing Unistrut concrete anchor Gypsum Vapor retarder Steel stud filled with batt insulation Polystyrene inlusation prevents thermal bridge through concrete Vertical unistrut support bracket Horizontal unistrut bracket BITPV mounting stud and cover Building integrated transpired photo voltaic panel 3” air space Solar absorption panel with waterproofing coating Solar radiance A B C D El. 0’ 0” El. 14’ 0” El. 26’ 0” El. 38’ 0” El. 50’ 0” El. 62’ 0” El. 74’ 0” Evacuated tube solar collectors transfer solar energy from the sun into a water/glycol fluid 21 June 1500 hrs 21 Dec 1500 hrs Air reclamation unit uses heat generated from facade to temper greenhouse air Water glycol mixture heats water for domestic use and radiant heating system BITPV feeds electricity into breaker panel Operable windows allow for passive coooling in summer Radiant heating system takes advantage of the thermal mass properties of the concrete slab Operable windows creates convection currents cooling the greenhouse in summer Dining balcony naturally daylighted year round Building integrated transpired photo voltaic facade creates electric- ity, tempered air, and stacked cooling Renewable systems follow structural gridlines from the roof into the basement Louvers transfer warmed air to the ARU or allow it to exhaust Air enters facade through louvers Rainwater from the roof is collected and stored in a cistern for non-potable uses Warm air from dorm rooms vent to BITPV facade B C D E F G Building Integrated PV : Transpired Solar PV Glass rainscreen Operable windows allow for passive ventilation Greenhouse on roof of kitchen allows for site food production, while taking advantage of heat losses and optimal winter sun Building massing oriented to South to maximize passive solar gains in winter months Building massing oriented to South to maximize passive solar gains in winter months Bilateral daylighting of communal rooms and stair- wells Emphasis on stairs to reduce elevator use 4th Street Dormitory (Bruininks Hall) T_Square: T.Daniel Fuller & Thea Holmberg-Johnson May 6, 2011 Second Floor Typical Floor A. Single Occupancy Room B. Common Balcony C. Common Sitting Area D. Laundry E. Elevator Lobby F. Private Dining Room G. Greenhouse H. Convenience Store I. Individual Chapter House J. Shared Fraternity Space K. Classroom L. Lobby M. Information Desk N. Offices O. Mail Room P. Restrooms Q. Study Spaces R. Computer Lab S. Meeting Room T. Flexible Space (Future Commercial Retail) U. Community Room V. Custodial Closet W. Common Dining Room X. Kitchen Y. Loading Dock Z. Serving Area AA. Dish Washing BB. Dish Storage

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Page 1: 4th Street Dormitory (Bruininks Hall) T Square: T.Daniel

Grid

Post tensioned concrete withconcrete topping

Radiant heat tubing

Unistrut concrete anchor

Gypsum

Vapor retarder

Steel stud �lled with batt insulation

Polystyrene inlusation prevents thermal bridge through concrete

Vertical unistrut support bracket

Horizontal unistrut bracket

BITPV mounting stud and cover

Building integrated transpiredphoto voltaic panel

3” air spaceSolar absorption panel with

waterproo�ng coating

Solar radiance

A B C D

El. 0’ 0”

El. 14’ 0”

El. 26’ 0”

El. 38’ 0”

El. 50’ 0”

El. 62’ 0”

El. 74’ 0”

Evacuated tube solar collectors transfer solar energy from the sun into a water/glycol �uid21 June 1500 hrs

21 Dec 1500 hrs

Air reclamation unit uses heat generated from facade to temper greenhouse air

Water glycol mixture heats water for domestic use and radiant heating system

BITPV feeds electricity into breaker panel

Operable windows allow for passive coooling in summer

Radiant heating system takes advantage of the thermal mass properties of the concrete slab

Operable windows creates convection currents cooling the greenhouse in summer

Dining balcony naturally daylighted year round

Building integrated transpired photo voltaic facade creates electric-ity, tempered air, and stacked cooling

Renewable systems follow structural gridlines from the roof into the basement

Louvers transfer warmed air to the ARU or allow it to exhaust

Air enters facade through louvers

Rainwater from the roof is collected and stored in a cistern for non-potable uses

Warm air from dorm rooms vent to BITPV facade

B

C

D E

F

G

Building Integrated PV : Transpired Solar PV Glass rainscreen

Operable windows allow for passive ventilation

Greenhouse on roof of kitchen allows for site food production, while taking advantage of heat losses and optimal winter sun

Building massing oriented to South to maximize passive solar gains in winter months

Building massing oriented to South to maximize passive solar gains in winter months

Bilateral daylighting of communal rooms and stair-wells

Emphasis on stairs to reduce elevator use

4th Street Dormitory (Bruininks Hall)T_Square: T.Daniel Fuller & Thea Holmberg-Johnson May 6, 2011

Second Floor

Typical Floor

A. Single Occupancy RoomB. Common BalconyC. Common Sitting AreaD. LaundryE. Elevator LobbyF. Private Dining RoomG. GreenhouseH. Convenience StoreI. Individual Chapter HouseJ. Shared Fraternity SpaceK. ClassroomL. LobbyM. Information DeskN. O�cesO. Mail RoomP. RestroomsQ. Study SpacesR. Computer LabS. Meeting RoomT. Flexible Space (Future Commercial Retail)U. Community RoomV. Custodial ClosetW. Common Dining RoomX. KitchenY. Loading DockZ. Serving AreaAA. Dish WashingBB. Dish Storage