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RETROFIT OF HISTORIC WAREHOUSE TO NEW MEDICAL CLINIC IN TULSA, OK STRUCTURAL TEAM 2010 5 STRUCTURAL TEAM 2010-5 JACQUELINE BAYER JEFFREY DOWGALA JEFFREY DOWGALA LIAM HENDRICKEN LAUREN MCNALLY A 9 2010 APRIL 9, 2010

Drexel (2010-5)

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Page 1: Drexel (2010-5)

RETROFIT OF HISTORIC WAREHOUSE TO NEWMEDICAL CLINIC IN TULSA, OK

STRUCTURALTEAM 2010 5

STRUCTURALTEAM 2010-5

JACQUELINE BAYER

JEFFREY DOWGALAJEFFREY DOWGALA

LIAM HENDRICKEN

LAUREN MCNALLY

A 9 2010APRIL 9, 2010

Page 2: Drexel (2010-5)

INTRODUCTIONASCE CHARLES PANKOW FOUNDATION ANNUAL

ARCHITECTURAL ENGINEERING STUDENT COMPETITION

(CIRCA 1927)

Page 3: Drexel (2010-5)

PROPOSED NEW DESIGN

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INTRODUCTIONASCE CHARLES PANKOW FOUNDATION ANNUAL

ARCHITECTURAL ENGINEERING STUDENT COMPETITION

GOALSINNOVATION

SUSTAINABILITYSUSTAINABILITY

DESIGN FOCUSEXISTING STRUCTUREEXISTING STRUCTURE

MEDICAL CLINIC NEEDS

TORNADO SHELTERTORNADO SHELTER

TRIAGE CENTER

Page 5: Drexel (2010-5)

PROJECT REQUIREMENTS DISCIPLINARY COORDINATION ARCHITECTURAL ARCHITECTURAL CIVIL STRUCTURALSTRUCTURAL MECHANICAL

HISTORIC PRESERVATION HISTORIC PRESERVATION DEVELOP SAFE DESIGN DERIVED FROM CODES AND GUIDELINES TORNADO SHELTER

T C TRIAGE CENTER

Page 6: Drexel (2010-5)

CODES & STANDARDS MULTI-DISCIPLINARY IBC, 2006IBC, 2006 IEBC, 2006

WIND AND EARTHQUAKE LOADS ASCE 7-05

CONCRETE CODE ACI 318-08

TORNADO SHELTER REQUIREMENTS FEMA 361

SUSTAINABILITY LEED V3 2009

Page 7: Drexel (2010-5)

PROJECT MANAGEMENT: DESIGN PROCESS

Architectural DesigngSite DesignStructural DesignMechanical DesignTornado Shelter DesigngBuilding Integration

Page 8: Drexel (2010-5)

PROJECT MANAGEMENT: DESIGN PROCESS

Concept Design

Analytical Model

Proposed Design

Final Design

Architectural

Site

Architectural

SiteSite

Structural

Site

Structural

Mechanical

Tornado Shelter

Mechanical

Tornado Shelter

Page 9: Drexel (2010-5)

SITE LOCATION TULSA OK TULSA, OK BRADY ARTS DISTRICT

SIZE OF SITE SIZE OF SITE ~1 ACRE

SITE USE OBJECTIVES SITE USE OBJECTIVES PARKING

S P SMALL PARK

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SITE

Medical ClinickPark

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EXISTING FIRST FLOOR

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EXISTING SECOND FLOOR

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COMPETITION PROPOSED FIRST FLOOR

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FINALIZED FIRST FLOOR

Lobby Enhancement

Tornado Shelter

Fire StairTower

Page 15: Drexel (2010-5)

FINALIZED SECOND FLOORCommunity Space

Fitness

Mechanical

Childcare

Alternative M di i

Mechanical Room

Medicine

Staff Room

Page 16: Drexel (2010-5)

DESIGN GOALS & PRIORITIES TORNADO SHELTER DESIGN

D C E DETERMINE CAPACITY OF EXISTINGSTRUCTURE

DESIGN NEW LATERAL LOAD RESISTINGSYSTEM

EXTERIOR WALL REHABILITATION

STRUCTURAL RETROFITS FOR ARCHITECTURAL STRUCTURAL RETROFITS FOR ARCHITECTURAL& MECHANICAL DESIGN

SLAB AND WALL PENETRATIONS

Page 17: Drexel (2010-5)

DESIGN CHALLENGES TORNADO SHELTER IN AN EXISTING STRUCTURE

ACCOMMODATE ARCHITECTURAL CHANGES ACCOMMODATE ARCHITECTURAL CHANGESTO BUILDING LAYOUT

COLLABORATING WITH MECHANICALENGINEERS PROTECT THE MECHANICAL NEEDS OF THE

TORNADO SHELTER

DIFFERENT METHODS OF ANALYSIS TOCONFIRM RESULTS

Page 18: Drexel (2010-5)

INNOVATIVE DESIGN 2-WAY CONCRETE SLAB

R E REVERSE ENGINEERING

CAPACITY ANALYSIS

COMPUTER ANALYTICAL MODEL SAP2000 CALIBRATED WITH HAND

CALCULATIONS

Page 19: Drexel (2010-5)

ASSUMPTIONS MAXIMUM CAPACITIES OF 2ND FLOOR

AND ROOF TO BE 250 PSF AND 70 AND ROOF TO BE 250 PSF AND 70 PSF, RESPECTIVELY EXTERIOR WALL COMPOSITION ANDEXTERIOR WALL COMPOSITION AND

DETAILS EXISTING CONCRETE ALLOWABLEEXISTING CONCRETE ALLOWABLE

COMPRESSIVE STRENGTH 1,200 PSI EXISTING REINFORCEMENT STEELEXISTING REINFORCEMENT STEEL

REBAR ALLOWABLE STRESS 16,000 PSI DRILLED PIER FOUNDATION SYSTEM TODRILLED PIER FOUNDATION SYSTEM TO

BEDROCK

Page 20: Drexel (2010-5)

DESIGN PARAMETERS NON-TORNADO SHELTER DESIGN WIND SPEED:

90 MPH90 MPH IMPORTANCE FACTOR 1.15

TO O S D S G W S TORNADO SHELTER DESIGN WIND SPEED: 250 MPH

USE ASCE 7-05 PRESSURE CALCULATIONS

Page 21: Drexel (2010-5)

SAP2000 MODEL COLUMNS – FRAME ELEMENTS

SLABS – SHELL ELEMENTS SLABS – SHELL ELEMENTS

COLUMN CAPITALS – RIGID LINKS

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GRAVITY LOAD STRUCTURAL SYSTEM DIRECT DESIGN METHOD – HAND

CALCULATIONCALCULATION

SAP2000 COMPUTER MODEL WITHIN 20% OFHAND CALCULATIONSHAND CALCULATIONS

4

6

*ft)

‐2

0

2

0 2 4 6 8 10 12 14

t in Co

lumn Strip (k

Direct Design Method

SAP2000 Min Envelope

10

‐8

‐6

‐4

Design Mom

ent

SAP2000 Max Envelope

‐10Length x (ft)

Page 23: Drexel (2010-5)

GRAVITY LOAD STRUCTURAL SYSTEM MINIMUM AREA OF STEEL ADEQUATE FOR

DEMANDDEMAND EXISTING SLAB EXISTING COLUMNS

SLAB REINFORCEMENT #7’S AT 6” O.C. FOR 2ND FLOOR#7 S AT 6 O.C. FOR 2 FLOOR #7’S AT 9” O.C. FOR ROOF

ACTUAL WORKING STRESS CAPACITYACTUAL WORKING STRESS CAPACITY PENDING FIELD TESTING SECOND FLOOR: 350 PSF LIVE LOADSECOND FLOOR: 350 PSF LIVE LOAD ROOF: 175 PSF ROOF LIVE LOAD

Page 24: Drexel (2010-5)

LOBBY ENHANCEMENT REMOVE SECOND

FLOOR SLAB ABOVEFLOOR SLAB ABOVELOBBY

EFFECTIVE COLUMN EFFECTIVE COLUMNLENGTH INCREASED

NO ADDITIONALREINFORCEMENTNEEDED FOREXTERIOR COLUMNS

le

l

le

0 01 A Cleρg < 0.01 ALL CASES

Page 25: Drexel (2010-5)

TORNADO SHELTER DESIGN LOADS FROM FEMA 361 GUIDELINES AND

ASCE 7-05ASCE 7-05 DESIGN WIND SPEED 250 MPH LOADS APPLIED TO ENTIRE STRUCTURE

MAX UPLIFT ONROOF ≈ 200 PSF

Page 26: Drexel (2010-5)

TORNADO SHELTER DESIGN COMPUTER MODEL

(SAP2000) FOR DEMAND(SAP2000) FOR DEMAND

ROOF ABLE TOWITHSTAND TORNADOWITHSTAND TORNADOWIND FORCES

V M S P VON MISES STRESS PLOT

TOP AND BOTTOM REBARNEAR COLUMN CAPITALSNEAR COLUMN CAPITALS

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UPLIFT CAPACITY SOILS AND FOUNDATION SYSTEM GEOTECHNICAL ENGINEERING REPORT PROVIDED GEOTECHNICAL ENGINEERING REPORT PROVIDED

UPLIFT CAPACITY LIMITED DUE TO LOW SKINF C O F O C SOFRICTION FROM CLAY SOIL

NO NET UPLIFT FORCES

Page 28: Drexel (2010-5)

TORNADO SHELTER WALL DESIGN WALLS BETWEEN COLUMNS

SHEAR WALLS: 8” GROUTED MASONRY INFILL SHEAR WALLS: 8” GROUTED MASONRY INFILLWALLS WITH #6 @ 24” PENETRATIONS 6 DOORS

1 ELEVATOR DOOR

2 -18”X18” LOUVERS

Page 29: Drexel (2010-5)

EXTERIOR WALL REHABILITATION EXTERIOR MASONRY TO REMAIN

NEW BACKUP WALL DESIGNED NEW BACKUP WALL DESIGNED

TWO-TYPES OF WALLS SHEAR WALLS: 8” GROUTED MASONRY INFILL

WALLS WITH #6 @ 24” 4-1/2” DEEP STEEL STUDS WITH 12 GAUGE WALL

THICKNESS AT 16” O.C.

Page 30: Drexel (2010-5)

LATERAL LOAD RESISTING SYSTEM TORNADO SHELTER

WALLS DESIGNEDWALLS DESIGNEDAS SHEAR WALLS

CENTER OF RIGIDITY CENTER OF RIGIDITYMATCHES CENTEROF GRAVITYOF GRAVITY REDUCE TORSIONAL

EFFECTSEFFECTS

Page 31: Drexel (2010-5)

SUSTAINABILITY LEED V3 2009 SILVER CERTIFICATION (55 POINTS) SILVER CERTIFICATION (55 POINTS)

EXISTING BUILDING MATERIAL CONSERVATION

RECYCLED CONSTRUCTION MATERIALS

Page 32: Drexel (2010-5)

CLIENT BUDGET

BUDGET COSTBUDGET COST

CONSTRUCTION $3,227,825

FURNISHINGS $775 000FURNISHINGS $775,000

DESIGN $330,000

PERMITTING FEES $10 000PERMITTING FEES $10,000

LAWYER & BOND COSTS $50,000

S A $0SITE ACQUISITION $0

TOTAL: ≈ $4,400,000

Page 33: Drexel (2010-5)

INTEGRATION AND COLLABORATION

COORDINATION ARCHITECTURAL, STRUCTURAL, MECHANICAL, ETC.

TORNADO SHELTER

NEW BACKUP WALL CONSTRUCTION

BUILDING INFORMATION MODELING: REVIT 2010BUILDING INFORMATION MODELING: REVIT 2010

Page 34: Drexel (2010-5)

RETROFIT OF HISTORIC WAREHOUSE TO NEWMEDICAL CLINIC IN TULSA, OK

STRUCTURALTEAM 2010-5

STRUCTURALTEAM 2010 5

JACQUELINE BAYER

JEFFREY DOWGALAJ O G

LIAM HENDRICKEN

LAUREN MCNALLY