Portfolio 2017

Page 1

LANDSCAPE ARCHITECTURE PORTFOLIO 2015 - 2017

ANDRES RAYGADA



01 02 03 04 05 06

CONTENTS About Resume

3

Zephyr Institute Design + Build

5

reRoute Urban Design

13

Conspicuous Habitat Urban Design

19

Coastal Typologies Research

25

Construction Drawings Construction

35 2


Andres Raygada

Education 2013-2017

2016

900 Cuesta Dr. Mountain View, CA 94040 (650) 810-5198 agraygada@gmail.com

Bachelor of Science in Landscape Architecture California State Polytechnic University, Pomona Italy Study Abroad Italart Santa Chiara Study Center - Castiglion Fiorentino, Italy

Experience 2017

Freelance Designer

Design-build for Zephyr Institute

Palo Alto, CA

Designed a courtyard space for Zephyr Institute that reflects company mission. Developed design concept, schematic planting and irrigation plan, and renderings for client. Managed construction of the project after the design phase. 2017

Landscape Designer + Project Manager

Mountain View, CA

Designed a native garden for a front yard residential landscape. Developed schematic planting and irrigation plan, and renderings for client. Managed installation of the project after the design phase. 2013

Playground Construction

Mountain View, CA

Developed construction skills by de-constructing a backyard playground, staining wood, replacing arid turf with soft mulch, and re-constructing the playground in a different backyard space. 2010 - 2016

Pool Attendant - Lifeguard - Swim Instructor

Mountain View, CA / Pomona, CA

Welcomed customers into the facility, enforced regulations, handled paperwork and money, and taught swimming techniques to people of all ages.

Awards + Honors 2017

ASLA Merit Award Invited by Cal Poly Pomona Landscape Architecture faculty to present a selection of personal works to an ASLA jury. Won the ASLA Merit Award for demonstrating “good verbal communication”, “great research based responses to the program”, “clear graphic communication”, and “good thoughtful solutions”.

2016

Land Art Generator Initiative

Design Competition

Design project placed top 50 in a global design competition, and was published in the LAGI book, Powering Places. Project is featured on: http://landartgenerator.org/LAGI-2016/01009170/

3


Participation 2016

Long Beach City Council Meeting

Long Beach, CA

Studied city’s approach towards adapting to climate change and sea level rise during a city council meeting with the Environmental Committee. Incorporated observations into a strategy suggestions report. 2016

Los Angeles River Clean Up

Long Beach, CA

Volunteered at a clean up event with the Friends of the LA River organization. Our task was to remove debris from the LA River Estuary. 2017

Studio Collaboration with AHBE Landscape Architects

Los Angeles, CA

Developed strategies to deal with sea level rise in the City of Long Beach. Gained professional work ethic and comfort working with a diverse group of people. 2016

Sit & Shralp

Design - Build Bench Project

Cal Poly Pomona, CA

Designed and constructed a multi-purpose bench that catered to the skateboarding community as well as the day-to-day pedestrians. Project was displayed at LA Public Works in downtown Los Angeles for two weeks.

Skills

References

Personal

Susan J. Mulley

Fluent in Spanish and English

Associate Professor at CPP

Public speaking and human relations techniques

sjmulley@gmail.com

Adept at conflict management

(909) 815-4737

Organized and punctual Recognize and utilize the skills of others Make good use of feedback Demonstrate good leadership skills and take initiative Hand drafting, model making, and photography

Rennie Tang Assistant Professor at CPP rktang@cpp.edu (310) 562 - 8468

Ability to move into new situations

Matt Bowman

Programs

Executive Director at Zephyr Institute

Adobe Illustrator Adobe Photoshop Adobe InDesign AutoCad Rhino SketchUp 123D Make Microsoft Word + PowerPoint

mattwbowman@gmail.com (415) 595 - 3487

4


Zephyr Institute Team

Kevin Lei Andres Raygada

Site

Zephyr Institute Palo Alto, CA

As a start up in Palo Alto, the Zephyr Institute focuses on developing strategies that merge technology with integral human development. The organization’s label was inspired by the famous Zephyr train; a locomotive designed for sightseeing which travels through the vivid Colorado Rockies and High Sierras. Considering the concepts of the Zephyr train and the Institute itself, the project reimagines a passive backyard space as a thoughtfully designed, dynamic landscape for social events and performances.

5



MASTER PLAN Redwood Deckiang

Playground Fiber

Planting Beds

Existing Tree+Shed

Red Mulch White Dolomite The planting scheme strives to provide a drought tolerant, low maintenance landscape that would attract the ecological community. With vibrant fragrance and color contrasts, the floral composition provides a dynamic setting that is gives life to the space.

FEET

7

0’

6’

12’

24’

N


PLANT PALETTE

1

2

3

4

5

6

7

8

9

10

11

12

14

15

16

17

1 Achillea millefolium

2 Lantana sellowiana

3 Asparagus sprengeri

4 Agave attenuata

5 Nassella tenuissima

6 Limonium perezii

7 Salvia leucantha

8 Asparagus densiflorus

9 Anigozanthus ‘Bush Ballad’

10 Anigozanthus ‘Yellow Gem’

11 Senecio serpens

12 Lavandula

14 Redwood

15 White Dolomite

16 Red Mulch

17 Playground Fiber

13

13 Ficus Pumila

8


WOODEN DECK DETAILS

9


10


BEFORE

The Zephyr Institute desired a space where they could host social events and lectures, but could also utilize as an outdoor living room. The design reflects the company’s mission, and considers the aspirations of the client. As the Zephyr team focuses on “human flourishing”, the idea of “true north” is heavily

11

emphasized as a way to define the “true direction”. This theory compelled the design to have distinctive features; the deck is established on the north side of the site to serve as a podium like feature. The wooden planks and planters are angled towards true north to create a dynamic composition and present the space with a new character.


AFTER


reRoute

north side re-imagine

Team Iliana Valenzuela Iliana Valenzuela.Kevin Lei.Andres Raygada Kevin Lei

Andres Raygada Site

LAX Airport Los Angeles, CA

Los Angeles International Airport (LAX) is an infrastructural landscape that possesses poetic value, typically disregarded by the urban metabolic system. reRoute strives to unify these characteristics in one expansive site, where visitors can interact with various forms and allow the happenings of LAX to escort their experiences. This urban project reimagines the north side landscape of LAX, Argo Ditch, as a space for species to inhabit and avoid plane strikes, and for people to experience the energy of the locale from new perspectives.

13



URBAN NETWORK Conveyance Systems

Los Angeles Metro Rail

metrolink los angeles, usa

la metro part manufacturers

santa clara valley transportation authority santa clara, usa

global distributors u.s.a. metro zones

dallas area rapid trasnit authority dallas, usa

rest zones communication

valley metro rail phoenix, usa

metro lines freight shipping routes

central puget sound regional transit authority rail maps seattle, usa

alternative freight shipping routes future metro accomodations

kinkisharyo intl.headquarters japan

overseas shipping routes designated shipping locations

kinkisharyo intl., u.s. headquarters el segundo,massachusettes

truck cargo shipping routes los angeles metro headquarters

kinkisharyo intl., palmdale factory palmdale

los angeles metro stations

red & purple line 3,902,386 riders/ month

blue line 2,067,519 riders/ month

lax

green line 1,014,748 riders/ month gold line 1,198,787 riders/ month

expo line 814,438 riders/ month

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At the start of the project, our studio was to select a subject associated with the urban fabric of Los Angeles. I analyzed the LA Metro Rail, which provides Los Angeles with a network of public transportation. I analyzed how the system circulates throughout the city, along with how the system came to be. Located in Osaka, Japan, Kinki Shayro Co. fabricates the parts for each Metro cart in Los Angeles. They are then transported across the Pacific Ocean and into the United States, where they are shipped to California and established in the city of Los Angeles. As a team, we identified patterns that conveyed the intricate systems of LAX. Considering the characteristics of the overall site, these patterns produced an intricate mosaic that greatly impacted our design.


north

ZONE 3 Restricted Area High points

Anti-Bird Strike

Bio-Retention zones

DIscovery &channeling zone

Sub Zones

ZONE 1 open spaces

ZONE 2 Argo Ditch

open space accessibility faa regulations

view points

avian density/circulation strategy human circulation strategy

storm water runoff strategy

wind strategy

Parking Area

elevation change

Play area

elevation change

Enclosure zone

Beacon zone

nitching Zone

Solar Energy zone

Gathering Space

Reflection & biking zone

Plane Spotting

Parking Area

250 ft.

site conditons

SITE ANALYSIS

1000 ft.


DESIGN Section AA

Section AA

CONNECTION

DISCOVERY

Section AA

feet 0

merging

17

500

1000

2000

N

connection


feet 0 0’

MERGING

The poetic rhythms of LAX express ecological harmonies and conflicts within the field. There are moments and interactions between the human and non-human species, and the intangible aviation. Conflicts are generated when these rhythms collide, causing one to take over the other. reRoute strives to unify these harmonies and conflicts by redirecting the poetic rhythms. Our team approached these issues by delineating three zones: merging, connection, and discovery. Merging is about the initial encounter with the site, where people are welcomed and intrigued by compelling forms emerging from the land. Connection is how people will interact with ecology by meandering over bodies of water and through dense fields of soft textures. Discovery is designated for humans to admire the ecological qualities of the site, and encounter panoramic views of the ambient setting.

50 50’

100 100’

200 200’

connection

discovery

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Conspicuous Habitat Team

Antonio De Jesus Kevin Lei Andres Raygada

Site

Santa Monica Pier Santa Monica, CA

Land Art Generator Initiative (LAGI) provides a platform for designers around the world to produce projects that would serve as solutions for sustainable energy infrastructures. The project site for the 2016 design competition was based in Santa Monica, located along the coast of Southern California. Conspicuous Habitat was noticed in the 2016 LAGI publication, Powering Places, for rethinking the Santa Monica Bay as a space for the public to engage with the aquatic ecosystem, while also serving the urban grid a significant favor.

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TECHNOLOGY STUDY Throughout the analysis phase, our team focused on researching renewable energy technologies and local Santa Monica Bay fauna. infrared/ visible radiation

energy

parabolic mirror condensor foil boiling seawater membrane heat flow

electrical contacts

We developed diagrams that conveyed the processes of each technology we identified. We also analyzed aquatic species that were prominent and charismatic in the area. We identified their habitats, food chains, and purposes, and delineated strategies that would generate new habitats for the nominated fauna.

pv-cell thermal interface material

vacuum concentrate

cooling layer cooler manifold

brine

core technology

fluid in- outlet

dc

urban grid

electricity

ac

transfigure

inverter distillate

evaporator

water storage system

gas accumulator four-way rectifier

crest

crest

b

b

ac

dc -

two-way hydraulic piston

hydraulic motor

generator

trough urban grid

a

500kW 500kW 500kW

substation

21

a

275,000MW annually

electrical & control room


FAUNA ANALYSIS

15days

spawning process

sediments

dry land

2-4days 5C

8C

1C

3C

continental shelf

deep ocean floor

juvenile

2m

mature

1.5m

migratory patterns

Food Chain

homo-sapien

paralichthys californicus

halibut

large fish

octopus

flounder

cod squid

0.5 m

crab

abalone drift algae

smelt sand lance

starfish

herring

krill croaker

sea urchin

crab small fish

salmon

suspended matter

sea otter

octopus

1m

engraulidae

anchovy

hermit crab

filter feeder

kelp animal plankton

plant plankton

sun

22


life span

point absorber

biorock

water wheel

23

overview weaknesslocation

support

solar flux

thermal flux

wave speed

wind pattern

directional

stability

scalability

weather

multi-functional

flexibility

efficiency

aesthetics

maintance

impact

mitigation

air pollution

noise pollution

biological pollution

debris pollution

toxic polllution

wildlife safety

human safety

TECHNOLOGY MATRIX + MODELS

attenuator

searaser

weptos

piezoelectric sensor

concentrated pv

seabin

oyster reef

floating wetland

highly effective

least effective

effective

not applicable


DESIGN After analyzing various renewable energy technologies we developed a matrix that categorized their efficiencies. This helped us determine which systems could best be applied to our site in terms of functionality and aesthetics. Following this process, we developed a set of free-hand models using various mediums. The goal was to create typologies that would inspire our design. We eventually critically combined a set of models to curate our design forms; the intricate overlapping linear elements serve as an artificial reef that would generate habitat for shellfish and other species. The buoyant pillars convey the point absorber system, which intends to produce 300 kilowatts per day, per pile, and serve as a luminous feature at nightfall. With an extended pathway leading towards the offshore project, visitors will be able to experience the Conspicuous Habitat.

sea ss

in

els

halibut ovy anch

dri ft ae alg

ch

ur

c

vy

mu

an

ho

anchovy

sels mus

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TYPOLOGIES Team

Antonio de Jesus Andres Raygada

Site

Long Beach, CA

The issues of climate change are putting coastal cities at risk. Sea-level rise is a factor that could contaminate our cities in salt water, and cause detrimental affects to our living environments and essentials. In collaboration with AHBE Landscape Architects, the LA402L Advanced Landscape Studio from Cal Poly Pomona engaged in sea-level rise analysis to determine zones in the city of Long Beach that were most vulnerable to inundation. Each team developed a set of strategies that would allow the city to adapt to sea level rise.

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RISK

Our atmosphere acquires CO2 particles from various factors (cars, factories, fossil fuels, burning of matter, etc.), and absorb thermal heat from the sun, cohesively generating a warmer planet. Warmer climates cause bodies of water to expand due to melting of ice lands and thermal expansion. Thermal expansion is caused by water molecules absorbing heat, and using the energy to circulate more actively throughout the ocean, forcing it to expand in size. Scientists expect sea levels to rise at a rate of 2.3m for every 1°C. Coastal environments are at risk of flooding, which could diminish property values, ecological habitats, and water sanitation, and would present disease to the locales.

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VALUE Parks Public Right-of-Way

Parks Public Right-of-Way

1 Mile

Commercial

1 Mile

Industrial

Parks Public Right-of-Way

Parks Public Right-of-Way

1 Mile

Residential Sea level rise has the potential to inundate much of Long Beach and wreck prominent infrastructures, such as the international trading docks. The large population will also face detrimental affects to their properties and health. By applying strategies to the zones at risk, Long Beach can adapt to SLR, and allow the flooding to generate new habitats for the ambient fauna.

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1 Mile

Public Use



POTENTIAL Hairy Woodpecker // Picoides villosus Yellow-Chevroned Parakeet // Brotogeris chiriri Mitred Parakeet // Psittacara mitratus Great Horned Owl // Bubo virginianus Belted Kingfisher // Megaceryle alcyon Eurasian Collared-Dove // Streptopelia decaocto Rock Pigeon // Columba livia Mourning Dove // Zenaida macroura Common Gallinule // Gallinula galeata American Coot // Fulica americana Indian Peafowl // Pavo cristatus Golden Pheasant // Chrysolophus pictus Calidrids // Genus Calidris Sharp-Tailed Sandpiper // Calidris acuminata Western Sandpiper // Calidris mauri Least Sandpiper // Calidris minutilla Pectoral Sandpiper // Calidris melanotos Long-billed Dowitcher // Limnodromus scolopaceus Willet // Tringa semipalmata Western Willet // Tringa semipalmata inornata Solitary Sandpiper // Tringa solitaria Lesser Yellowlegs // Tringa flavipes Whimbrel // Numenius phaeopus Long-billed Curlew // Newmenius americanus Marbled Godwit // Limosa fedoa Wilson’s Phalarope // Phalaropus tricolor Spotted Sandpiper // Actitis macularius Gulls, Terns, and Skimmers // Family Laridae Caspian Tern // Hydroprogne caspia Royal Tern // Thalasseus maximus Forster’s Tern // Sterna forsteri Herring Gull // Larus argentatus Western Gull // Larus occidentalis Thayer’s Gull // Larus thayeri Heermann’s Gull // Larus heermanni Ring-billed Gull // Larus delawarensis California Gull // Larus californicus Laughing Gull // Leucophaeus atricilla Typical Plovers // Genus Charadrius Killdeer // Charadrius vociferus

Black Oystercatcher // Haematopus bachmani Black-Necked Stilt // Himantopus mexicanus Black-headed Grosbeak // Pheuticus melanocephalus American Pipit // Anthus rubescens Blackpoll Warbler // Setophaga striata Yellow-rumped Warbler // Setophaga coronata Audubon’s Warbler // Setophaga coronata ssp. Auduboni Townsend’s Warbler // Setophaga townsendi American Avocet // Recurvirostra americana Red-Throated Loon // Gavia stellata Western Grebe // Aechmophorus occidentalis Pied-billed Grebe // Podilymbus podiceps White-faced Ibis // Plegadis chihi Brown Pelican // Pelecanus occidentalis American White Pelican // Pelecanus erythrorhynchos Snowy Egret // Egretta thula Great Egret // Ardea alba Black-Crowned Night-Heron // Nycticorax nycticorax Least Bittern // Ixobrychus exilis Green Heron // Butorides virescens Peregrine Falcon // Falco peregrinus American Kestrel // Falco sparverius Anna’s Hummingbird // Calypte anna Allen’s Hummingbird // Selasphorus sasin Rufous Hummingbird // Selasphorous rufus Black-Chinned Hummingbird // Archilochus alexandri Vaux’s Swift // Chaetura vauxi Mute Swan // Cygnus olor Mallard // Anas platyrhynchos Domestic Duck // Anas platyrhynchos ssp. Domesticus Northern Pintail // Anas acuta Green-winged Teal // Anas crecca Cinnamon Teal // Anas cyanoptera Blue-winged Teal // Anas discors Gadwall // Anas strepera Northern Shoveler // Anas clypeata American Wigeon // Anas americana Bufflehead // Bucephala albeola Surf Scoter // Melanitta perspicillata Ring-necked duck // Aythya collaris

This map conveys the habitat densities for all avian species that lie within the cityscape. The birds are established along the edges of the city, due to the fact that buildings and other concrete surfaces have demolished their native habitats, forcing species to migrate towards the edges of the city where they have access to their food supply. In relation to SLR, these edge conditions are poised for new wetland habitats due to the encroaching of water.

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Lesser Scaup // Aythya affinis Ruddy Duck // Oxyura jamaicensis Cackling Goose // Branta hutchinsii Black-and-white Warbler // Mniotilta varia Orange-Crowned Warbler // Oreothlypis celata Nashville Warbler // Oreothlypis rificapilla Common Yellowthroat // Geothlypis trichas Northern Red Bishop // Euplectes franciscanus Bushtit // Psaltriparus minimus Cedar Waxwing // Bombycilla cedrorum Common Raven // Corvus corax House Finch // Haemorphous mexicanus Canada Goose // Branta canadensis Wood Duck // Aix sponsa Muscovy Duck // Cairina moschata Domestic Muscovy Duck // Carina moschata ssp. Domestica Egyptian Goose // Alopochen aegytiaca Cooper’s Hawk // Accipiter cooperii Red-tailed Hawk // Buteo jamaicensis Turkey Vulture // Cathartes aura Double-crested Cormorant // Phalacrocorax auritus Pelagic Cormorant // Phalacrocorax pelagicus Barn Swallow // Hirundo rustica Northern Rough-winged Swallow // Stelgidopteryx serripennis Brown-headed Cowbird // Molothrus ater Yellow-headed Blackbird // Xanthocephalus xanthocephalus Western Meadowlark // Sturnella neglecta Great-tailed Grackle // Quiscalus mexicanus Red-wingled Blackbird // Agelainus phoeniceus European Starling // Sturnus vulgaris House Wren // Troglodytes aedon American Robin // Turdus migratorius Hermit Thrush // Catharus guttatus Western Bluebird // Sialia mexicana Willow Flycatcher // Empidonax traillii Black Phoebe // Sayornis nigricans Warbling Vireo // Vireo gilvus Song Sparrow // Melospiza melodia

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Bird Species in Long Beach Threatened Species


0’

10,000’

20,000’


Berm The berm concept strives to accommodate for SLR by simply providing a natural barrier, which is intended to dissipate the flow of water over time. As water seeps behind the berm, a channel will be created, enabling fauna to occupy a new space.

Channel This strategy aims to dissipate SLR by placing two artificial reefs. The rip rap used for these structures will generate a new habitat for sea fauna, and filter effluent as water flows through the pores. It will also provide a new platform for visitors and fisherman to gaze out towards the horizon and aquatic happenings.

Groin The groin strategy is an accessible passageway that extends out towards the ocean. Water will disperse and filter as it flows through the rip rap, and accumulate in pockets created by the groin to generate new habitat zones for fauna. The aquatic activities will poise educational opportunities, and the causes of SLR will therefore be more appreciated.

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STRATEGIES

Existing Terrace

Channel

Elevated Path

Rip Rap

SLR

Rip Rap Concept

Effluent

Filtered Effluent

Sea Rip Rap

Public Amenities

Habitat Stone

Pore Space for Fish

Engraulidae

Zalophus californianus

Echinoidea

Asteroidea

Circulation Effluent Dispersed/ Filtered Water Habitat Zones Rip Rap

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G

LS-02

5’ TYP

G

LS-02

C

LS-02

F

LS-02

E

LS-02

A

LS-02 A2

LS-02

E

LS-02

G

LS-02

L

R

P

LS-04

LS-04

A

LS-02

A1

LS-02

E

LS-02

G

Q

RL N

LS-04

LS-04

LS-02

O

LS-04

5’ TYP

G

LS-0

5’ TYP

35


Construction Drawings The following drawings are details from a construction document I developed throughout my junior year at Cal Poly Pomona.

5’ TYP

RL

5’ TYP RL

F

LS-02

D

LS-02

F

LS-02

B

LS-02

RL B

A

LS-02

LS-02

B

LS-02

G

A3

02

LS-02

RL

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WOODEN DECK 20' 5'TYP (O.C.)

TYP

2" X 12" FASCIA

4" x 8" BEAM 5' SPACING O.C. (TYP)

5'-8" (O.C.)

CONCRETE FOOTING 12" TYP

12' 2" X 4" JOIST 16" SPACING O.C. (TYP)

2" X 6" DECKING 1 8" SPACING (TYP)

2" STRINGER 1 8"

2" X 4" STEPS SPACING (TYP)

1'TYP 4"

2" X 12" FASCIA 2" X 6" DECKING 1 8" SPACING (TYP)

TYP

4" CONCRETE SLAB

J L-05

4" DEPTH DECOMPOSED GRANITE

2"

4" AGG. SUB BASE I L-05

1' 5"

95% COMPACTED SOIL

12" X 12" CONCRETE PO H L-05

DECKING PLAN

2" x 4" STEPS

H L-05

SCALE: 1/4"=1'-0"

STEPS

SCALE: 1/2"=1'-0"

2R @ 6" 2T @ 12" DG PATH

5'

2" STRINGER 1 8"

2" X 4" STEPS SPACING (TYP)

1'TYP 4"

TYP

2" X 12" FASCIA

4" X 4" POST

4" CONCRETE SLAB

4"

POST BASE ANCHOR

4" DEPTH DECOMPOSED GRANITE

2"

4" AGG. SUB BASE

1'

GALVANIZED MACHINE BOLT

CONCRETE POST FOOTING

5"

5"

4"

95% COMPACTED SOIL

95% COMPACTED SOIL

12" X 12" CONCRETE POST FOOTING

H L-05

37

STEPS SCALE: 1/2"=1'-0"

1'

I L-05

FOOTING SCALE: 1/2"=1'-0"


TRELLIS

10' TYP (O.C.)

10' TYP (O.C.)

TYP

TYP

8"TYP

8"TYP

2" STRINGER 1 8"

2" X 4" STEPS SPACING (TYP)

1'TYP 4"

2" X 12" FASCIA

TYP

4" CONCRETE SLAB

DEPTH DECOMPOSED GRANITE

2"

4" AGG. SUB BASE

2" x 8" BEAM BOARDS

2" x 8" BEAM BOARDS

1' 5"

95% COMPACTED SOIL

3'-6"

12" X 12" CONCRETE POST FOOTING

H L-05

STEPS SCALE: 1/2"=1'-0"

2" X 6" RAFTERS 4' SPACING O.C.

2" X 6" RAFTERS 4' SPACING O.C.

2" X 2" SLATS 8" SPACING (TYP)

3'

2" X 2" SLATS 8" SPACING (TYP)

4" X 4" POST

4"

POST BASE ANCHOR

GALVANIZED MACHINE BOLT

3'-6"

CONCRETE POST FOOTING

5"

4" X 4" POST

4" X 4" POST

4"

95% COMPACTED SOIL

1'

I L-05

FOOTING SCALE: 1/2"=1'-0"

K L-05

OVERHEAD STRUCTURE K

L-05

SCALE: 1/4"=1'-0"

OVERHEAD STRUCTURE SCALE: 1/4"=1'-0"

4" x 8" BEAM

4" X 4" POST

2" X 4" JOIST

POST CAP GALVANIZED MACHINE BOLT

1 4"

POST BASE ANCHOR

CONCRETE FOOTING

BOLT

1 4"

BOLT

2" X 6" BEAM

2" X 6" BEAM

4" x 4" POST

4" x 4" POST HURRICANE TIE

J L-05

BEAM TO POST/ JOIST TO BEAM SCALE: 1/2"=1'-0"

K L-05

LATTICE DETAIL SCALE: 1/4"=1'-0"

2" X 2" SLATS

2" X 2" SLATS

2" X 6" RAFTER

2" X 6" RAFTER

WOOD SCREW @ LATTICE (TYP)

WOOD SCREW @ LATTICE (TYP)

2-1/4" BOLTS

2-1/4" BOLTS

K L-05

LATTICE DETAIL SCALE: 1/4"=1'-0"

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5'-8"TYP (O.C.)

WOODEN STEPS + RAILING

TYP

8"TYP

2" X 2" SLATS

K L-05 6" 2" X 6" RAFTER 2" X 6" BEAM

4" X 4" POST

2" X 6" HANDRAIL 10' 2" X 4" RUNNER BEAM

M L-05

2" X 2" BALUSTERS 4" SPACING (TYP) 2" X 12" FASCIA 2" STRINGER

L L-05

H L-05

1" 3'-72

2" X 4" STEPS 1 8" SPACING (TYP)

1'TYP

TYP

4" CONCRETE SLAB 4" DEPTH DECOMPOSED GRANITE

J L-05

4" AGG. SUB BASE 95% COMPACTED SOIL

I L-05

CONCRETE POST FOOTING

DECKING SECTION SCALE: 1/4"=1'-0" 2" X 6" HANDRAIL 3" L BRACKET (TYP) 4 WOOD SCREWS 5'-8"TYP (O.C.)

4" X 4" POST

GALVANIZED MACHINE BOLT

4"TYP

2" X 2" BALUSTER 4" SPACING (TYP)

2" WOOD SCREW 3'-2"

2" X 4" RUNNER BEAM

2" X 2" BALUSTER 1" 52

CONCRETE POST FOOTING

1'

95% COMPACTED SOIL

39

L L-05

RAILING SCALE: 1/4"=1'-0"

2" X 4" WOOD BEAM

L L-05

RAILING DETAILS SCALE: 1/4"=1'-0"


HARDSCAPE MOULDED STEEL HANDRAIL 1-1/2" DIAMETER INSTALLED ON CENTER OF CHEEK WALL

#4 REBAR @ 16" O.C.HORIZONTAL TYP. 1'

CONC. CHEEK WALL @ 6" HIGH

DECOMPOSED GRANITE AUTUMN BLEND MARBLE 6" AGGREGATE SUB-BASE

NOSE @ 1" DIAMETER

1'-1"

1" 1'-52

CONCRETE STEPS NATURAL FINISH

5" 7"

1 2"

1" 62 1'

EXPANSION JOINT

1'-1" 1"

SLEEVE @ 2-1/2" DIAMETER 3' 12" DEPTH 1 2" GROUT FILL

95% COMPACT SUB GRADE

6"

6" 4" 6"

1' 6"

N L-06

CONCRETE STEPS WITH HANDRAIL

SCALE: 1/4" = 1'-0"

5'

MOULDED STEEL HANDRAIL 1-1/2" DIAMETER INSTALLED ON CENTER OF CHEEK WALL CONC. CHEEK WALL @ 6" HIGH

3'

SLEEVE @ 2-1/2" DIAMETER 12" DEPTH 1 2" GROUT FILL

4" CONC. SLAB 6" AGGREGATE SUB-BASE

6" 4" 6"

8.3% SLOPE

95% COMPACTED SOIL

P L-06

HANDRAIL PLACEMENT IN CHEEK WALL

SCALE: 1/4" = 1'-0" WALL CAP

3" 8" 8" x 8" CMU

3 8"

FLUSHED MORTAR GAP

# 4 VERTICAL REBAR 16" O.C. TYP

STONE VENEER 4" DEPTH CONCRETE SLAB 6" AGGREGATE SUB-BASE

3 8"

3'

EXPANSION JOINT

10" X 16" CONC. FOOTING

1'

95% COMPACTED SOIL

10"

1'-4" R L-06

3' - H STONE VENEER WALL W/ CMU BLOCKS SCALE: 1/4"=1'-0"

40


Places I Appreciate

Superkilen Park - Copenhagen, Denmark

41


Davenport DIY - Davenport, CA

42


Skatepark de Plainpalais - Geneva, Switzerland

Andres Raygada agraygada@gmail.com (650) 810-5198


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