nablus city hall
DESCRIPTION
Nablus City Hall. By Areen Abu Zaid Zinab Abu Shaqdam Mdlaeen Godeh. Chapters. Chapter one:Introdution. Chapter two: architectural design. Chapter three: Inviromental design. Chapter four: Structural design. Chapter five: Internal system design. Chapter One : Introduction. - PowerPoint PPT PresentationTRANSCRIPT
Nablus City Hall
By Areen Abu Zaid
Zinab Abu Shaqdam
Mdlaeen Godeh
Chapters
Chapter one:Introdution
Chapter two: architectural designChapter three: Inviromental design
Chapter four: Structural design
Chapter five: Internal system design
A building lies in the western side of A building lies in the western side of Nablus , this building consist of two Nablus , this building consist of two stories of (8000 mstories of (8000 m22) , and height of each ) , and height of each storey is (5m)storey is (5m)..
Ground floor consists of two main halls, Ground floor consists of two main halls, library, cafeteria, bathrooms, and library, cafeteria, bathrooms, and security and Theatresecurity and Theatre..
11stst floor consists of computer hall, floor consists of computer hall, bathrooms, cafeteria , theare first floorbathrooms, cafeteria , theare first floor..
Buildings of the project:
1-Building Main Halls
2-theater of the project
3-Central cafeteria
4-A major public library
5-Computer hall
Halls Area(m^2) Capacity(persons)
Hall 1 1163 m^2 580
Hall 2 800 400
Theatre 1210 807
Computer hall 120 50
library 213 40
Cafeteria 1700 400
The site with respect to palestine
Analysis of street
Suggested Enterance
Map that shows street dirt
Traffic around the site
Elements of agroup within the site
Analysis of the noise level
Architicture Design
Nablus City Hall
Site plan
Master plan (ground floor)
Master plan (FIRST FLOOR)
Sections
Elevations
Elevations
Chapter Two
Nablus City Hall
Structural Design
Yielding strength of steel, fy = 4200 kg/cmYielding strength of steel, fy = 4200 kg/cm22..
Modulus of elasticity of steel, Es = 2.04x106 Modulus of elasticity of steel, Es = 2.04x106 kg/cmkg/cm22..
Modulus of elasticity of concrete, Ec = 15100 √ Modulus of elasticity of concrete, Ec = 15100 √ fcfc. .
B300 → fc = 240 kg /cmB300 → fc = 240 kg /cm22 → Ec = 2.34×105 → Ec = 2.34×105 Kg /cmKg /cm22
Design Data
Unit weights of materials: Unit weights of materials: Reinforced concrete = 2.5 ton/m Reinforced concrete = 2.5 ton/m33 . . Blocks = 1.2 ton/m Blocks = 1.2 ton/m33 . . Stone =2.6 ton/m Stone =2.6 ton/m33.. Sand =2 ton/m Sand =2 ton/m33..
soil bearing capacity = 1.5kg/cmsoil bearing capacity = 1.5kg/cm22. .
Design Data
Design loadsDesign loads::
live load is 500 kg/mlive load is 500 kg/m22 =0.5 T/m =0.5 T/m22 for grond and for grond and first first floor __ L.L For final roof=0.2 T/mfloor __ L.L For final roof=0.2 T/m22. . Super imposed dead load is 0.3 T/mSuper imposed dead load is 0.3 T/m22. .
Slap thickness = 20 cm solid slap (roof)Slap thickness = 20 cm solid slap (roof)Stair thickness =25 cmStair thickness =25 cmWall thickness = 20 cmWall thickness = 20 cm
Design Data
Theatre column center
Pannel beam roof reinforcement
Footing and tie beam for theatre
Structural Details for
theatre
Theatre and cantiliever stairs
Theatre Block
Service Block
In this block we use pannel beam system using solid slab 20 cm depth with continuos beams carried on shear wall.because of long spans and to achieve theatre function.
Ground floorfirst floor
Design steel for ground floor as the shear wall carry the load
Moment from sap (M=20t.m/m)
Design steel for first floor as the shear wall carry the
load
Moment from sap (M=20t.m/m)
Case 2:As another solution if there is compressive refile siolwith minnimum load 98% underground use 7 Ø12/ m in two direction upper and bottom steel use minnimum steel.
After design on sap and select beam dimension(120*80cm) approximetly each 4 m, the figure from sap show steel value as follow:
Design of beam
Use 22 Ø20 mm for the bottomFor the top steel use As minUse 12 Ø18
Use Ø10/20cm Stirups
Design for exterior wall:
From sap we find F11 = 14 t/m
Use 5 Ø12/ m Horizontal Steel
We find from sap F22 = 46t/m
Use 7 Ø16/ m Vertical Steel
Shear wall reinforcement
Footing design:After analysis on sap and finding load on footing per meter :DL on Foundation = 40t/mLL on Foundation = 20t/m
Section in footing
Column design
The design load can be calculated using the following equation:
Pd= Pn= *λ {0.85* fc(Ag-As) + As*f y}𝜙 𝜙.
𝜙 = 0.65 for tied columns. 𝜙 = 0.7 for spiral columns.
λ = 0.8 for tied columns.λ = 0.85 for spiral columns.
Type Pu Pn Dim AG
As(cm^2)
No. #of bars
Group 1 220 338 120*50 6000 75
25Φ20mm
Group2 112 172 90*50 4500 45
15Φ20mm
Group 3 21.3 32.3 D=50 1963.5 20
10Φ16mm
Type of column
Service block (rib distribution)
Structural details for service block
Column centre and footing for service
Piles design
Chapter three
Nablus City Hall
Electrical Design
N=E*A/(n* FL*Ku*Km) Where:N=number of units in place(#of luminair).E=Illuminance,measured by lux.A=area of space.n= number of lamp.FL=Flux (lumen/lamp).Ku=utilization factor (depend on room factor ).Km=maintenance factor.
Lighting calculation
room l w hm area power kr E mf fac ku type n FL N lighting
wattmain
intrance 27 18 4 539 26 2.994 320 0.5 0.9 0.8 fl 4*26 4 1800 60 60 6228
rest area 6.26 4 4 23.5 40 0.573 300 0.5 0.9 0.8 pl lamp 2 1200 7.3 8 587.5
bath1 6.48 6.13 4 39.7 18 0.787 100 0.5 0.9 0.8 pl lamp 2 1200 4.1 4 148.8
intrance 3.2 7.3 4 23.6 26 0.562 300 0.5 0.9 0.8 fl 4*26 4 1800 2.5 3 255.7
rest area 114.5 8.75 4 106 40 1.143 300 0.5 0.9 0.8 fl 4*26 4 1800 11 12 1771
rest area 212.8 8.5 4 106 40 1.244 300 0.5 0.9 0.8 fl 4*26 4 1800 11 11 1767
rest area 35.8 6.15 3.5 34.2 40 0.817 300 0.5 0.9 0.8 fl 4*26 4 1800 3.6 4 569.3
room 1 9.8 6.9 3.5 26.5 40 0.453 200 0.5 0.9 0.8 F40T14 2 2600 2.5 4 203.8
room 2 7 4 5 28 40 0.509 100 0.5 0.9 0.8 F40T14 2 2660 1.3 2 105.3
storage 16.32 7.1 5 44.9 40 0.669 100 0.5 0.9 0.8 F40T14 2 2660 2.1 2 168.7
storage 26.3 6.2 4 45 26 0.9 100 0.5 0.9 0.8 F40T14 2 2660 2.1 2 110
Sample of calculation
Calculation of the (MDB) and cross section area of cables
Total current for lighting = 80 A
We select diameter of cablesD cables = 25 mm
Total Current for sockets = 40 Amp and use cable with diammeter = 16 mm Area
sections (mm^2)
usese no
1.5 Lighting 12.5 Sockets 22.5 Main cable 32.5 Special bells 4
Power(watt) Current (amp)
Uses no
250 2 normal 1
1000 15 special 2
Power for ground floor
Lighting for ground floor
Theatre (MDB)
Chapter four
Nablus City Hall
Mechanical Design
WATER SYSTEM
We use direct up feed system
Water distribution plan
We use cold water collecter
And hot water collecter
and electrical heater
Drainage system
Fire system
We Used (2) system in the project:
1 -chilled water systym in the main hall. 2- gas to gas systym in the secondary hall.
CHILLER 136 ton (Heat pump)327 GPM
We used air handler unit with capacity 8000 CFM
FAN COILT
- Heating Load Calculation:zone Description details Area/m2 U
w/m2.k∆T winter Q HEATING(watt)
MAIN HALL
in.wall N 311.85 3.3 8 8232.84
W 183.75 3.3 8 4851
WS 150.15 3.3 8 3963.96
WS 37.8 3.3 8 997.92
WS 87.15 3.3 8 2300.76
N 67.2 3.3 8 1774.08
ES 136.5 3.3 8 3603.6
ES 69.3 3.3 8 1829.52
ES 63 3.3 8 1663.2
EXT.wall E 51.3 0.9 20 923.4
internal door
N+WS+ES
40 3.5 8 1120
EXT door E 5.6 3.5 20 392
EXT door S 4.6 3.5 20 322
EXT door S 16.4 0.9 20 295.2
exposed ceiling
1015 0.5 20 10150
FLOOR 1015 0.136 9 1242.36
Q S)COND 43661.84
For Theater
RESULT UNIT
v vent 7200 L/S
v inf 9291.666667 L/S
Q INF 111500 WATT
111.5 KW
Q DOMESTIC 9753.333333 WATT
HEATING
Q TOTAL 202172.1509
202.1721509 KW
57.7634717 TON
q total 80 TON
ACH=1.5Required ventilation = 8 (L\s)\ person #No Person= 900 Q Total=80 TON
NO diff = 100 we used (60x60) provide 400 CFM
zone Description details Area/m2
U w/m2.k
CLTD
∆T winter
q HEATING(watt)
qCOOLING(watt)
MAIN HALL in.wall N 311.85 3.3 20 8 8232.84 8232.84
in.wall W 183.75 3.3 20 8 4851 4851
in.wall WS 150.15 3.3 20 8 3963.96 3963.96
in.wall WS 37.8 3.3 20 8 997.92 997.92
in.wall WS 87.15 3.3 20 8 2300.76 2300.76
in.wall N 67.2 3.3 20 8 1774.08 1774.08
in.wall ES 136.5 3.3 20 8 3603.6 3603.6
in.wall ES 69.3 3.3 20 8 1829.52 1829.52
in.wall ES 63 3.3 20 8 1663.2 1663.2
EXT.wall E 51.3 0.9 15.25
20 923.4 704.0925
internal door
N+WS+ES
40 3.5 14.5 8 1120 2030
EXT door E 5.6 3.5 15.5 20 392 303.8
EXT door S 4.6 3.5 10.57
20 322 170.177
EXT door S 16.4 0.9 10.57
20 295.2 156.0132
exposed ceiling
1015 0.5 15.85
20 10150 8043.875
Cooling load
Q total = 61.25 KwQ s= 43.10 KwV cir = 3591.71 L/SV cir =7901.76 CFMNo . diffuser =100 use 100 SIZE THE DIFFUSER FOR 400 CFM (60x60) CM
Cooling calculation
Difuser and grill for the
building Difuser and grill for theatre
ventelation
Exhust fan window
Exhust duct grill
Use two type
Chapter Five
Nablus City Hall
Inviromental Design
Inviromental analysis
المشروع منطقة تصنيف:X منًاخيًا
المنطقة في المنًاخية تقعطول الثًالثة خط بين وتقععرض 35.370)شرقا ) وخط
(32.322 )q شماًال
Winter Summe
r
Tin 23 23
Tout 12 35
Φ in 50% 50%
Φ out 50% 50%
W in 8.9 8.9
W out 5 20.5
T
ground
15.7 23.7
Design Condition
Sun Motion
Heat calculation
Construction (wall) Resistance (R) m².k/w
Inside surface 0.11
Plaster (0.02m) 0.014
Block (0.1m) 0.12
Cement mortar (0.14m) 0.08
Stone (0.06m) 0.023
Outside surface 0.04
Total Resistance 0.387(m².k/w)
U 2.58 w/m².k
Calculate the thermal of the external wall
Construction(wall) Resistance (R) m².k/w
The first surface 0.11
Plaster (0.02m) 0.014
Block (0.1m) 0.12×2
plaster in other side
0.014
Other side surface 0.11
Total resistance 0.49 (m².k/w)
U 2.04 w/m².k
Calculate the thermal of the internal wall
Construction(ceiling)
Resistance (R) m².k/w
In side surface 0.09
Plaster (0.02m) 0014
Block (0.14m) 0.168
Cement mortar (0.06m)
0.034
Other side surface 0.03
Total resistance 0.336 (m².k/w)
U 3 w/m².k
Calculate the thermal of the ceiling
Heat loss for the All external and internal walls of the building (theatre ):North wall:Area wall = ((28.35+25.2+47+40.5+22.5+24+17.2+311.8+76.2)-(4+3)-(40) = 540 m²Area windows = 7 m²Area door = 40 m²Q(heat loss) = Σ Area × U × T= [540 × 2.6 + 7 ×6.7+40×3.5]×[20] = 31818 watt.
Sample of calculation
For internal wall
For external ceiling
materials
Accostics
منطقة المرافق المحيطة بالمسرح ويكون فيها ضجيج عالي
منطقة المخازن المحيطة ويكون مستوى الضجيج فيها اقل
منطقة اللوبي والحركة الخارجية قريبا من المسرح ويكون مستوى الضوضاء فيها عالية
اثناء وبعد العرض
Thank you