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Mountain Ridge Project - final presentation - AEC The making of Ridge University Engineering Building E ngineerMartha DelCampo, Stanford A rchitectKatrin.

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Presentation on theme: "Mountain Ridge Project - final presentation - AEC The making of Ridge University Engineering Building E ngineerMartha DelCampo, Stanford A rchitectKatrin."— Presentation transcript:

1 Mountain Ridge Project - final presentation - AEC The making of Ridge University Engineering Building E ngineerMartha DelCampo, Stanford A rchitectKatrin Wender, Weimar O wnerRegina Pau, Sunnyvale C onstruction Manager Kris Grotelueschen, Stanford APP renticeGrace Yamamoto, Stanford AEC

2 Site conditions AEC

3 Winter Decision Matrix A E C Benefits Draw - backs Owner’s choice 2 Entrances Privacy/security good Concrete system Straightforward structure Spiral stairs Concrete frame & slab Better MEP & floor depth Not risky for A Roof truss & MEP intake Stream threats Skylight leaking Extended footprint Deep floor beams & MEP Lack of vertical mech. path space $2.7 Million 6/01/16 $3.4 Million 5/12/16

4 Functional spaces and relationship AEC

5 3d view – design concept...water is flowing among stones......sunlight - collected like rain in a lake in the mountains... AEC

6 Key elements of design instr. labs student offices, large meeting space normal student offices seminar rooms auditorium entrance hall AEC layout floor #2 south-north section with sunlight study

7 Layouts (schematic view) mechanical computer storage restrooms auditorium large classr. small classr. instr. labs student - offices seminar r. faculty off. secretaries chair‘s off. senior admin AEC basement floor #1 floor #2 floor #3

8 Entrance the fly brake box builds a relationship between the road and the building AEC

9 Sight lines AEC floor #1 line: road – entrance – auditorium  leads people into the building sight lines to stairs circulation

10 Floor #1 entrance hall with fly brake box (1.1, 1.0) auditorium (1.5) large classrooms (1.4, 1.6) small classrooms (1.7, 1.8) restrooms (1.2, 1.3) AEC

11 Floor #2 pbl spaces with seminar rooms, student offices, round table space (2.7-2.22) greenhouse space (2.23) instructional labs (2.6, 2.24) small classrooms (2.28, 2.30) faculty offices (2.4, 2.5, 2.26, 2.27) storage (2.25) restrooms (2.2, 2.3) AEC

12 Floor #3 administration (3.23-3.29) faculty offices(3.4-3.21) storage (3.18) gallery (3.10) faculty lounge (3.6) restrooms(3.2, 3.3) hallway (3.1, 3.22) AEC

13 Facades east / north east north west AEC east / north west / south south / east

14 Wall systems & Cladding EIFS exterior wall systems Good thermal values Lightweight Inexpensive compared to stone panels Available in many colors AEC Stud Wall Backup Structural Slab EIFS System

15 Performance – architecture AEC

16 Performance – architecture AEC requirements, that are matched: -daylight for all classrooms, labs, offices -all classrooms have a views to river or mountains -privacy for offices -security for administration and computer machines room requirements that are not matched: -computer machines room closed to the instr. labs -level of allowed noise for large classrooms -privacy of student offices

17 AECAEC Structural system

18 AECAEC Concrete columns Concrete shear walls – bearing and lateral Post-tensioned slab Steel and glass roof truss system Structural system elements

19 Dead Loads –Lightweight Concrete Slab: Avg. 100 psf –Partition Walls: 10 psf –Ducts, Lights, etc.: 5 psf –Cladding: 10 psf Live Loads –Offices: 50 psf –Classrooms: 40 psf –Auditorium: 50 psf –Corridors: 100 psf –Snow: 50 psf –Avg. LL (by area): 62.5 psf AECAEC Structural system – gravity loads

20 AECAEC Gravity: Structural system – load path

21 Wind –Exposure B –V 33 = 70 mph Earthquake –Zone 3 –V = 638 kips AECAEC Structural system – lateral loads

22 AECAEC Lateral: VV Structural system – load path

23 AECAEC B1 23 Structural system by floor

24 AECAEC Column and Column Footing Detail: Structural details

25 AECAEC Column at Slab: Structural details

26 Wall Detail: AECAEC Structural details

27 AECAEC 16 banded 10 banded 5 distributed, 10 over column lines Post-Tensioning cable layout, Floor 1 11” deep center span 9” deep side span Slab design

28 AECAEC Post-Tensioning cable layout, Floor 2 16 banded 10 banded 5 distributed, 10 over column lines Slab design

29 AECAEC Post-Tensioning cable layout, Floor 3 16 banded 10 banded 5 distributed, 10 over column lines Slab design

30 AECAEC Post-Tensioning cable layout, Roof 10 banded 5 distributed, 10 over column lines Slab design

31 AECAEC 1 2 3 R Thanks to KL&A for use of Floor software Slab deflections

32 AECAEC Soil –Stiff Sand –Bearing Capacity: 5 ksf –Low settlement –Frost Depth: 4 ft. Foundation –Wall footings under shear and foundation walls: 3.5’w x 12”d –Column footings under columns: 8.5 ft 2 x 2’d –Slab on Grade Structural system – foundation

33 AECAEC SAP 2000 Model: Structural model

34 AECAEC Mode 1:Mode 2: T = 0.0952 sec. Δ max = 1.65 in. T = 0.092 sec. Δ max = 2.18 in. Structural model

35 HVAC system 3rd floor 2nd floor 1st floor Basement/Mechanical Air IntakeAir Exhuast Vertical Shafts AEC

36 HVAC diagram AEC

37 Sub Trailers Site Office 88t Hydraulic Mobile Crane Site Parking Material Laydown Site Entrance Construction site layout AEC

38 Construction sequence

39 Construction budget AEC

40 Construction budget Foundations $245K Substructures $63K Superstructures $690K Exterior Closure $467K Roofing $48K Interior Construction $554K Conveying Systems $52K Mechanical $749K Electrical $330K Special Construction $99K Total $3,297K AEC

41 AECAEC Atrium-Architecture Basis sunlight through the atrium is collected like rain in a lake in the mountains sunlight flows through the trusses into rooms atrium trusses are like trees on the mountain

42 AECAEC Atrium-Truss System

43 AECAEC Atrium-Truss Selection Problems deflection complex connections Three-Hinged Arch Truss

44 AECAEC Atrium-Truss Constraints Architectural height constraints 30’ elev 2.3’ height Repeated glass panel size, 4‘x5‘ 40’ base 8’ span 4’ span 20’ span between trusses Stability of half-truss

45 AECAEC Atrium-Truss Details Purlin detailBolt connectionAnchor connection to slab Column connection, no slab

46 AECAEC Atrium-Member Sizes Columns W 10x100 Truss members 2L 4x4x1/4 Bolts A325N ¾“ diameter Purlins 2L 3x5x1/2

47 Computer Necessity New hardware & software Meltdown flexibility Communication Be Clear & Listen Asynchronous vs. Synchronous Create clear sketches Collaboration 1 Goal Act as one Team Learning Experience- What did we learn here AEC Breaking Down Discipline Lines

48 Thanks AEC Thanks to mentors : Robert Alvarado Helmut Krawinkler Greg Luth Eric Horn Alfred Koelliker Chuck Madewell Bob Tatum James Bartone Boyd Paulson Scott Dennis...and Questions ?


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