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W O R K B R E N D O N M O A R

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Page 1: Work-Brendon Moar

W O R KB R E N D O N M O A R

Page 2: Work-Brendon Moar

CV

The Cooper Union, New York, NYB.Arch 2008-2013

Victoria School of the Arts, Edmonton, AB, CanadaH.S.D. 2006-2008

Intern ArchitectHartwig Architecture Inc.Sherwood Park, AB, CanadaJune 2012 to September 2012

RhinocerosAdobe Creative SuiteAutoCADGrasshopperRevitSketchUpMaya3d Studio MaxVRayLumionHand Drafting/Modeling/Rendering

English

References upon request.

Brendon Moar2 Northside Piers, Apt 8E

Brooklyn, NY 11249p: 347-599-1799

e: [email protected]

Education

Experience

Skills

Languages

Page 3: Work-Brendon Moar

WORK/Brendon Moar1

Elevation of Hashima circa 1960

Hashima was a settlement (still the community with the highest recorded population density ever) established for coal mining by excavating long descending tunnels into the sea f loor. Workers Extracted high-grade coal for nearly a century until it ran out in 1974 and the Island was abandoned. This is where Maxwell’s Second Law of Thermodynamics applies to Architecture. It states that entropy in a system will increase unless new energy is put in. So Shinsei is a graphic narrative that embodies the transformation of Hashima Island (near Nagasaki, Japan) from a bustling urban environment to an abandoned coalmine town to a dynamic physics institute (a program which does not rely on a single non-renewable resource).

Hashima

NagasakiSection Through Hashima Coal Mines

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Plan of Hashima - Past

Plan of Hashima - Present

Plan of Hashima - Future

Neutrino Detector

Large Ion particle Collision Detector

Inertial conf inement fusion Device

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WORK/Brendon Moar3

STUDIES

Mullion Detail of Seattle Public Library Curtain Wall Detail

Section Detail at Window

BU

ILD

ING

DE

TA

IL

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WORK/Brendon Moar 4

Plan Detail at Window

Roof Detail Handrail Detail in Villa Mairea by Alvar Aalto

Full Assembly Connection Detail

Connection Detail

Page 7: Work-Brendon Moar

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DAMSROSCH THEATER

LINCOLN

CENTERa t

Cross Section Through Damsrosch Theater at Lincoln Center

Page 8: Work-Brendon Moar

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Roof Detail

Wall DetailWall Section

South Elevation of Damsrosch Theater at Lincoln Center

ground Floor Site Plan of Lincoln Center

The plan of Lincoln center is based on two overlapping grids; the proposed theater is a manifestation of this in two intersecting volumes. One volume holds the two theaters in a glass diagrid, whereas the adminstration, lobby, and Backstages are placed in the other inverse grid volume which is covered in stone panels. the difference between the two volumes is meant to attract an audience with its irregular form compared to the rest of the plaza, while extending a face towards the Central fountain with the small theater cantilevered in the Clear diagrid from solid stone panel volume.

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LAF YETTE MUSEUM

AS

TO

R

The Colonnade is a relic of a past time, an object with a rich past and history in relation to Astor Place, Lafayette Street, and the East Village in New York City. A Proposal that the Colonnade and its surroundings become a site dedicated to the inspiration, exhibition, preservation, and creation of art. There will be three separate galleries that imply a border preserving the Colonnade and the artist’s retreat. The resulting piazza will become a hallowed setting for the display of sculptures and performance art.

There are seven parts to my museum:

1 - The Museum2 - The Theatre 3 - The Library4 - The Artist’s retreat5 - The Church6 - The Piazza7 - the Garden

Bird’s Eye View of Lafayette-Astor Museum

West Elevation of Lafayette-Astor Museum

1 1

1

2

4

3

5

6

7

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My Intention is that this site will become a hearth attracting some of the brightest cultural minds. the discourses they will share on the intersection of Astor and Lafayette will create a space of collection, preservation

and presentation.

Site Plan of Lafayette-Astor Museum

Construction Details

Detail of model

Detail of model

Page 11: Work-Brendon Moar

WORK/Brendon Moar

CABIN for THREE

9

A Cabin for Three is a 1400 square foot cabin located in Poland, Chatauqau County, New York. This cabin is supported by four glulam columns and four glulam lateral shear braces holding two glulam cantilevered triangulated trusses. rigid insulation panels are placed in between the glulam f loor and ceiling joists, which are then covered with birch plywood subf loor and walnut f looring. The cabin is enclosed with multiple operable f loor to ceiling sliding glass doors. Longitudinal Section

South West View of Cabin

2nd Floor Plan

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2.1 Dead Load of Structure Truss Assembly Type Unit Weight (Density, pfc) Linear Feet Number of Items Total Weight (#) 2.4 Wind Loading For Building Structure + Wind Speed: 90 mph Loading (psf)Top Chord Glu‐Lam 35 6.75 X 13.5 48 1 1063 2.5 Wind Loading For Cladding Elements, see attached 20.7

Bottom Chord Glu‐Lam 35 6.75 X 13.5 48 1 1063Compression Members Light Glu‐Lam 35 6.75 X 7.5 8 7 689 2.6 Snow Loading Loading (psf) Area (ft2) Total Weight (#)Compression Member Heavy Glu‐Lam 35 6.75 X 10.5 8 1 138 40 1152 46080

Tension Members Glu‐Lam 35 6.75 X 7.5 11 6 812Subtotal 3765

X 2 Trusses 2.7 Temperature Loading N.A.Total 7530 2.8 Seismic Loading N.A.

Floor Assembly Type Unit Weight (Density, pfc) Linear Feet Number of Items Total Weight (#) 2.9 Summary of Investigated Load Case Combinations Total Dead Load of Top Floor (#) 58297 38.7%Total Live Load of Top Floor (#) 92160 61.3%

Floor Joists Glue‐Lam 35 3.125 X 10.5 24 24 4594 Total Load of Top Floor (#) 1504572X4 Blocking Doug‐Fir Larch No. 2 35 1.5 X 3.5 48 4 245 Total Dead Load  of Bottom Floor (#) 9008

Total Live Load of Bottom Floor (#) 7680Type Unit Weight (psf) Area Number of Items Total Weight (#) Total Load  of Botoom Floor (#) 16688

Total Dead Load Combined (#) 67305Finish Floor ‐ Hardwood Floor 4 1152 4608 Total Live Load Combined (#) 99840

Plywood Top Layer 3/4" 2.25 4 X 8 1152 36 2592 Total Load of Floors Combined (#) 167145

Soft Insulation Straw or Wool 0.7 1152 806Total  Linear Loading per Truss per 24' 

Tributary Strip (klf)1.57

Plywood  Bottom Layer 3/4" 2.25 4 X 8 1152 36 2592 Compressive Reaction Force on Each Truss 111.6 0.75

Tensile Reaction Force on Each Truss 37.2 0.25Total 15437

Roof Assembly Type Unit Weight (Density, pfc) Linear Feet Number of Items Total Weight (#)

Roof Joists Glue‐Lam 35 3.125 X 7.5 24 48 65632X4 Blocking Doug‐Fir Larch No. 2 35 1.5 X 3.5 48 4 245

Type Unit Weight (psf) Area Number of Items Total Weight (#)

3‐ply and gravel 5.5 1152 6336Plywood Top Layer 1/2" 2.25 4 X 8 1152 36 2592Soft Insulation Straw or Wool 0.7 1152 806MEP Equipment 5 1152 5760

Plywood  Bottom Layer 1/2" 1.5 4 X 8 1152 36 1728Finish Ceiling Hardwood Ceiling 5 1152 5760

Total 29790

Wall Assembly 2nd Floor Type Unit Weight (psf) Area Number of Items Total Weight (#)

Sliding Doors

Glass Double Paned ‐ 1/8" 3.35 4 X 8 32 36 3859

Type Unit Weight (Density, pfc) Linear Feet Number of Items Total Weight (#)

Frames Hardwood 35 2 X 4 24 36 1680

Total 5539

First Floor Assembly Type Unit Weight (Density, pfc) Linear Feet Number of Items Total Weight (#)Columns Glu‐Lam 35 6.75 X 10.5 9.125 4 629

Shear Brace Frame Long Way Glu‐Lam 35 6.75 X 7.5 15.5 8 1526Shear Brace Frame Short Way Glu‐Lam 35 6.75 X 7.5 11 2 271

Floor Framing Glu‐Lam 35 6.75 X 13.5 64 1 1418Floor Joists Glue‐Lam 35 3.125 X 10.5 24 3 574Frames Hardwood 35 2 X 4 24 14 653

Type Unit Weight (psf) Area Number of Items Total Weight (#)

Glass Double Paned ‐ 1/8" 3.35 4 X 8 32 14 1501Studwall 4.5" 6 4 X 8 32 11 2112

Type Unit Weight Area Number of Items Total Weight (#)

Spiral Stair 325 1 325

Total 9008

2.2 Superimposed Dead Load N.A.

2.3 Live Loading Single Family Residence R1  Loading (psf) Area (ft2) Total Weight (#)2nd Floor 40 1152 460801st Floor 40 192 7680

General Loading Conditions and Structure Weight

Loading, Moment, and Shear Diagrams for Each Truss

Unit Size (ft)

Section (ft)

Section (in)

Section (in)

Unit Size (ft)

Unit Size (ft)

Section (in)

Snow Loading for Chautauqua County

Section (in)

Unit Size (ft)

Unit Size (ft)

Elements D & E

Calculations for the Moment of Inertia of the Truss Cross‐section

Mmax =  446.4 k‐ft from the moment diagram From Table A10 (p. 612)

Solving for the Truss Section Moment of 

Inertia as a Beam Using Negative Area

(bh3/12)‐(bh3/12)

6.75 in(123 in)3 6.75 in(96 in)3 Section 6 3/4" x 13 1/2"12 12 Area 91.13 in2

Sx 205 in3

fb (comp.) = fb (tens.)because section is 

symetricalIx 1384 in4

Allowable Bending Stress 2400 psiAllowable Shear Stress 165 psi

Allowable Axial Compression Stress 1650 psiAllowable Tension Stress 1100 psi

599 psi < 2400 psi Modulus of Elasticity 1.8x10^6  psi

Calculations for the Shear of the Truss Cross‐section

Vmax = 74.4 k from the shear diagram

Solving for Longitudinal and Transverse Shear using, fv = VQ/Ib

100 psi < 165 psi

Calculations for the Deflection of the Truss Cross‐section

Elements F, G, H

From Table A10 (p. 612)

Section 6 3/4" x 7 1/2"Area 50.63 in2Sx 63.28 in3Ix 237.3 in4

Allowable Bending Stress 2400 psiAllowable Shear Stress 165 psi

Allowable Axial Compression Stress 1650 psiAllowable Tension Stress 1100 psiModulus of Elasticity 1.8x10^6  psi

From Table A10 (p. 612)

Section 6 3/4" x 10 1/2"Area 70.88 in2Sx 124 in3Ix 651.2 in4

so, use  6.75 in x 7.5 in  Allowable Bending Stress 2400 psiAllowable Shear Stress 165 psi

use 6.75 in x 10.5 in  Allowable Axial Compression Stress 1650 psiAllowable Tension Stress 1100 psi

use 6.75 in x 7.5 in  Modulus of Elasticity 1.8x10^6  psi

section  for Element G,  which takes most loading;

section for all tension members, Element H, to match compression member section for design reasons

psi

, allowable shear stress Fv, so ok

psi

, allowable bending stress Fb, so ok

‐ = 549,074 in4

section for all compression members, Element F, except

Governed by Fc & Ft, Elements F & H will use:

Governed by Ft, Element G will use:

Elements D & E, the chords, will use:

Calculations  for the Truss Chords

Calculations for the Compression and Tension Members of the Truss

fv = = 100

Truss Cross‐section is sufficiently deep to withstand deflection

599

74.4k x 1000 lb/k x (13.5 in x 6.75 in)(54.75 in)549,074 in4 (6.75 in)

446,400 lb‐ft x 12 in/ft x 61.5 in549,074 in4fb = =

Structural Axonometric

Transverse Section Sectional Detail - Roof

Sectional Detail- 2nd Floor

Shear and Moment Diagrams of Truss

Diagram of Tension and Compression Members of Truss

Sectional Detail- Main Floor

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WORK/Brendon Moar

T H

E E

D M

O N

T O

N I A

N

11

this project was worked on immediately after joining Hartwig Architecture Inc. as a summer intern. Due to the client’s new requirements, the design changed drastically from previous proposals in order to satisfy both the Edmonton Design Council’s recommendations and to contextually suit the new downtown arena development. The original proposal for the edmontonian was smaller in stature and much more decorative. the new design is much more contemporary and iconic - a more singular statement. The bisected tower draws references from Edmonton’s Rapid growth north and South of the River, the Central Pyramids of Edmonton’s City Hall and the recent rejuvenation of the downtown. the Edmontonian is 65 Stories Tall, consisting of 310 condominiums that are a Ground Floor Plan

20th Floor Plan

42nd Floor Plan

View from in front of the Newly Proposed Downtown Edmonton Arena

Page 14: Work-Brendon Moar

mix of one, two, and Three bedroom units. There are over 40 affordable living units and 8 - 10 penthouse units included in the edmontonian. It will incorporate a new luxury 5-star hotel with 160 units occupying the f loors below the sky garden on the 23rd f loor with access to edmonton’s f irst indoor automated parking system placed on the 5 levels underneath the edmontonian’s base.design consideration was given to green technologies and sustainable building practices such as geothermal heating for the lobby, greywater systems, ice-storage plants for cooling, green roofs and landings (ie. multiple skygardens), rainwater collection systems through permeable paving. Each of the sky gardens present as stark cuts into the bisected tower. at the base, the skygardens will feature a grand atrium over the hotel lobby. When constructed, the edmontonian will be the tallest building in western canada and no doubt be an incredible addition to edmonton’s inspiring skyline. It is exciting to envision how the design will be ref ined.

WORK/Brendon Moar 12

View looking up from 101 street