1. Portfolio I Sandy Ghaly
Project Designer
MS. Arch I Dry Land Design , Urban Policy
sandyeghalli@gmail.com
sandy.ghaly@aridlands.org
2. Thesis Research I
3 Hydrologic solutions for a water smart LA
Supporting Water-Challenged Communities
Supporting Water-Challenged Communities to Capture and reuse
rain & stormwater by identifying areas suitable for infiltrating
water in the ground with the least investment and the highest
return.
Image: three major hydrologic zones:
Primary Infiltration (Infiltrate here) ,
Secondary Infiltration (Collect & convey) and
Contaminated areas (Do not infiltrate).
Pacoima is a high priority investment because
60% of its soils are suitable for infiltration.
Designing new water systems for low household income communities
that lack open & public spaces might benefit the economy, culture,
park poverty and food access.
3. Thesis Research I
Coupling infiltration nodes with transit stations
A transit station or stop can serve much more than a transporta-
tion function; it can be a setting for community interaction, a
place that fosters a diversity of activities.
By leveraging multipurpose infrastructural investment transit
stations can become focalpoints in a community, especially if
there is an associated plaza or public space.
4. Thesis Research I
Place making and food access
3 Hydrologic Solutions for a water smart LA explores the ways
we can maximize the recovery and reuse of rain and storm water
while supporting healthy sustainable food sources and designing
streets that activate public spaces, provide economic revital-
ization, increase public safety, and enhance local culture.
5. Thesis Research I
Policy Recommendations
Los Angeles needs to redefine the form based code to become a land
development regulation that fosters hydrologic zoning overlays
factors instead of just form or use.
Three distinct hydrologic zones should be incorporated in RE:Code LA:
7. 03. Method of construction:02. Method of inflection:
The process begins by drawing a line at angle of
the alltitude through each of the points on the object
in the front view. the intersection of these points are
then projected in the top view untill they intersect
with the horizontal base line at each point. the points
are then rotated until they intersect the azimuth.
01. Method of projection :
STEPS:
In order to engage the new volume with the ground
plane and create 3 dimensional habitable object,
mirror the construction lines of the shadows done
previously below the ground plane to re-orient the
new mass in relation to the ground plane.
Using a series of digital modeling techniques that
allow for the translation of three dimensional from two
dimensional lines, a new inhabitable volume is created
thatengages light and projects shadow
Develop prespectival view for the shadow Mirror shodow line to the below surface
The shadow is drawn by connecting the outermost
points on the object when they intersect the ground
and the adjacent Oblique view which illustrates the
shadow projection , connecting the three dimensional
orthographic projection of the original model.
The angles are combined in orthographic projections
to produce a shadow for the model and those lines are
later used after inflecting them to build a model
of habitable pavilions.
D,V
HIN
GE!
A
X
TRUELINE01
O1
U
Y
A
Y,Y'
B
V'U'
Z'
A
TRUELINE02
FRONTVIEW(05)
V
E
Z
D
U
C
SEC08
V
SEC07
ZU
U
SEC06
O2
Z
V1V2
Y
X
31
V
6
SEC05
SEC04
SEC03
SEC01
V4
HORIZONLINE
E
C
7
8910
RL5
D
CUTTINGPLANE(02)
A
Z
B
RL3
B
X
A
D
E
A
O3
C
Z
B
Y
Y
C
D
D
E
E
D
V
Y
U
C
D
22
Y
23
Z
11
21
19
A,Z
20
B,Y
12
13
24
25
26
V4
4
27
CD
D,V
B,Y
28
TOPVIEW(01)
SIDEVIEW(03)
RL2
SE
CTION 01
SE
CTION 02
SE
CTION 03
SE
CTION 04
SE
CTION 05
SE
CTION 06
SE
CTION 07
SE
CTION 08
SE
CTION 09
SE
CTION 10
RL 18NORMAL VIEW
TO
PLANE A,Z,Y,B
6
109
7
29
B,Y
32
18
33
31
Z
A,Z
BASELINE
SEC01
SEC02
E
E,U
38
V3
V2
V1
D
15
34
35
14
40
16
V3
41
17
V2
42
43
C
5
52
39
C
5344
30
51
45
34
46
35
SEC09
47
57,58
54
48
55
CUTTINGPLANE(01)
Y,Y'Z'ZXU
49
SEC10
V
53
RL 20
C
B
5214
11
C,X
13
12
18
E
NORM
ALVIE
W
TO
LI
NE
XE RL21
17
TRUELINE02
RL46
19
A,Z
TRUE
LIN
E01
15
O2
O2
RL41
O3
20
RL44
Zz
Yy
Xx
A
16
D
10
52,53
51
49,50
47,48
44,45
42,43
41
39,40
37,38
36
34,35
32,33
31
29,30
27,28
26
24,25
21
22
A,Z
23
24
25
B,Y
D,V
A,Z
B,Y
RL43
RL45
03
04
02
12,13
14,15
16
11
17,18
19,20
2122,23
54,55
56
57,58
27
TRUELINE03
28
26
D
FOR
IN
FLECTED
PLANE
(02)
RL31
FOR
IN
FLECTED
PLANE
(01)
RL30
32
B
3329
A
E
01
36
NEWC
37
NEWX
A,Z
38
U
D
V
C
C
C
D,V
50
Y
V5
Z
SEC09
04
A
V5
V5
02
42
54
A
43
41
39
40
44
D
45
46
03
B
E
47
57
SIDEVIEW(02)
48
D
58,59
SEC10
3
01
C
NEWC
SEC10
54
V4
C
55
52
B
D,V
C,56
A
2
57,58
49
SEC09
42
V3
45
1
V2
C
51
V1RL04
SEC08
50
48
47
48
D
Y
D
SEC07
PLANEOFPROJECTION
43
A
V3
41
Y,Y'Z'
V2
V
Z
X
40
39
SEC06
U
34
NEWFRONTVIEW
V'
X'
U'
U
35
NEWC
U
V
C
HL1
36
C
37
D
Y,Y'Z'Z
A
X'
X
Z
U'
Y
U
V'
38
E
B
E
E
A
SEC05
E
32
B
E
D
E
C
33
E
V
31
NEWC
RL1
4
30
SEC04
V
SEC03
25
V1
26
27
B
2820
19
STATIONPOINT
B
A
18
21
E
22
D
C
FOR NEW VIEW
RL28
2315
SEC01
SEC02
12
Y,Y'
11
Z'
13
B
17
Y
B,Y
CUTGROUNDPLANE
D
NORMALVIEWOF
NORMALVIEW
TO
CUTTIN
G
PLANE
RL7
C
C,U
VERTEX
A
B
B
V
EC
AB
U
16
VERTEX
C
V'
14
RL61
X'
NORMALVIEW
Z'
Y'
B
ZU
Z'
X'
U'V'
Y'
Z'Y,Y'
D
A
BOTTOMVIEWRL10
Z
CUTTINGPLANE
CUTTINGPLANE
TRUE
LI
NE
01
Xx
CUTTINGPLANE
C
RL6
C
CUTTINGPLANE
NORMAL
VIEW
TO
SE
CTION 01
NORMALVIE
W
TO
PRESEPECTIV
E
VIE
W
RL8
NORMAL
VIEW
TO
SE
CTION
02
RL9
EDGE
VIEW
TO
LINE
DC
NORMAL
VIEW
TO
SE
CTION
03
C
RL10
NORMAL
VIEW
TO
SE
CTION 04
RL11
D
RL12
FRONTVIEWWITHNEWGROUNDPLANE
NORMALVIEW
TO
PLA
NEA,D,V,Z
RL19
X
NO
RM
AL
VIEW
TO
SECTION 06
RL13
NO
RM
AL
VIEW
TO
SE
CTION 07
RL14
NORMAL
VIEW
TO
SE
CTION
08
RL15
NO
RM
AL
VIEW
TO
SECTION 09
RL16
NORMAL
VIEW
TO
SE
CTION 10
RL17
RL60
NORMALVIEW
XUV
A
V
TOPVIEWWITHWALLSPROJECTIONS
C
B
D
B
A
E
D
C
Y
C'
D'V
U
Z
VERTEX
A'
B
B
E
Y'
YZ'
A
V'
D,O2
A
Y
D
U'
Z
TRUE LINE 03
TRUELINE03
TRUE
LIN
E
02
TRUE
LIN
E
02
003
002
RL25
RL24
O2
D
C
001
2
C
1
O2
B
SEC02
D
V
A
Z
B
Y
U
X
22
21
19
20
24
25
26
27
28
Y
11
12
13
29
32
33
SEC03
SEC04
SEC05
18
37
38
36
34
35
SEC06
40
42
43
15
39
SEC07
14
44
45
17
46
B
47
52
53
48
SEC08
3050
50
54
57
58,59
D
NewVertex
NewVertex
A'
A'
C'
D'
E'
Vertex
TopViewofnewModelA,Z
B,Y
D,V
E,U
NewVertex
A
NO
RM
AL
VIEW
TO
SECTION 05
a
C
E
B
VERTEX
VERTEX
VERTEX
VERTEX
C
C
BB
A
A
D
D
51
50
56
b
B,Y
A,Z
C,X
A,Z
B A
D,V
e
Azimu
th
Line
05
Azimu
th
Line
01
Altitude
Line
01
Azimu
th
Line
02
U
Altitude
Line
02
D
B
Azimu
th
Line
04
E
Azimu
th
Line
03
E
C
D
C
A
VY, Y' ZY
Altitude
Line
05
Altitude
Line
04 Altitude
Line
03
Projecting model shadow
Academic Work I
The Super Inflatable
8. X-LARGE : Professional Work I
The Pearl
The Pearl is an iconic man-made island located on the Arabian Pen-
insula’s eastern shores in Doha, Qatar. Covering an area of 400
hectares, it features 40 km of reclaimed coastline and 20 km of
pristine beaches.
The island is a mixed-use entity of themed districts entailing
beach front villas, elegant town homes, luxury apartments, ex-
clusive penthouses, five star resorts, marinas as well as upscale
retail and restaurants.
Duties include:
- Floor plans developement
- Construction drawings.
- Coordination with different engineering disciplines.
Main Consultant: Smallwood, Reynolds, Stewart, Stewart
Size: 4 million square metres artificial island.
Cost: the initial cost of constructing the island stood at $2.5
billion. It is now believed the project will cost $15 billion upon
completion.
9. X-LARGE : Professional Work I
Makkah Royal Clock Tower
Jabal Al Qala’a is a residential and hotel superstructure offering world-class
accommodations for visitors and residents of the Holy City of Makkah Al-Mu-
karramah. Often referred to as Makkah’s Royal Clock Tower, Jabal Al Qala’a
majestically stands on a 23 ha prime site south of the Holy Haram within walk-
ing distance from the Haram’s extending outdoor plazas.
Duties include:
- Makkah Royal Clock Tower Hotel design developement.
- Podium facade design and details
- Coordination with different engineering disciplines.
Client: SBG
Main Consultant: AREEN, Bartenbach.
Size: 2.8 million m2 (21.5 million ft2).
Cost: $1.6 billion US dollars
10. LARGE : Professional Work I
King Saud University for Health Sciences
A state of the art Health Sciences Research and Medical Sciences
University which comprises world class educational, support and
administrative buildings dedicated to health sciences along with
all required service, housing, praying, infrastructure, recre-
ational and sports facilities.
Duties include:
- Science labs design development.
- Facade Construction drawings.
- Coordination with different engineering disciplines.
In collaboration with: Perkins + Will
Size: 1,108,683 (103,000 square meters).
11. SMALL : Professional Work I
Single family residence
Software used:
AutoCAD - Revit
Photoshop