HeatLoad Template

50
Project Name : Prepare by : Target Revision : ………………………….....……………… Location : Approved by : Sheet No. : ……………….....…….……....………… CHAP CHAP REF REF HOUR OF OPERATION GLASS SQ FT X 39 X 0.56 CONDITIONS DB WB % RH DP GR/LB GLASS SQ FT X 158 X 0.56 OUTDOOR (OA) 96 78 45 54 118 GLASS 120 SQ FT X 11 X 0.56 ROOM (RM) 72 60 50 51 58.8 GLASS 0 SQ FT X 0 X 0.56 DIFFERENCE 24 18 -5 3 59.2 16.00 P.M QUANTITY 3 & 4 SOLAR GAIN-GLASS (Btu/hr) 739 10 2 6 OUTDOOR AIR COOLING LOAD CALCULATION SHEET TABLE REFERENCE TABLE REFERENCES ITEM AREA OR FACTOR ESTIMATE FOR 15.00 PM SKYLIGHT 0 SQ FT X 0 X 0.94 133 PEOPLE X 5 CFM/PERSON 665 WALL 880 SQ FT X 10 X 0.099 10000 SQ FT X 0.06 CFM/SQ FT = 600 WALL 170 SQ FT X 12 X 0.099 1265 WALL SQ FT X 0 X 0.099 WALL SQ FT X 0 X 0.099 0 12 CFM/PERSON 0 ROOF-SUN SQ FT X 0 X 0.67 2 100 CFM/DOOR 200 ROOF-SHADED SQ FT X 0 X 0.67 3500 50 0.5 25 ALL GLASS 120 SQ FT X 24 X 0.5 0 PARTITION SQ FT X 19 X 0.67 1265 CFM OA CEILING 0 SQ FT X 10 X 0.32 FLOOR 0 SQ FT X 10 X 0.1 0.761 INFILTRATION CFM X 24 X 1.08 48 50 F PEOPLE 133 PEOPLE X 250 POWER HP OR KW X 63 0.2 72 48 19.2 LIGHT WATT X 3.4 X 1.25 APPLIANCE ETC. X 1 9,000 CFM DA ADDITIONAL HEAT GAIN X 0 19.2 16.11 9000 9,000 CFM SA SAFETY FACTOR 10 % 16.11 SUPPLY DUCT + SUPPLY DUCT + FAN 9000 9,000 - HEAT GAIN % 0 LEAK LOSS % 10 5 OUTDOOR AIR 1265 CFM X 24 F X 0.2 72 0.14 96 72 75 INFILTRATION 300 CFM X 59 GR/LB X 0.68 48 0.2 75 48 53 PEOPLE 133 PEOPLE X 200 STEAM 0 LB/HR X 1050 FROM PSYCH. CHART : 62 51 APPLIANCE ETC. 0 X 0 ADDITIONAL HEAT GAIN 0 VAPOR TRANS. 0 5 30 SAFETY FACTOR 10 % 1. USE DRY-BULB (DB) TEMPERATURE DIFFERENCE FROM TOP OF ESTIMATE FORM. 2. USE MOISTURE CONTENT (GR/LB) DIFFERENCE FROM TOP OF ESTIMATE FORM. SUPPLY AIR DUCT LEAK LOSS 5 % 3. NORMALLY. USE "CFM VENTILATION" FOR "CFM OUTDOOR AIR" HOWEVER OUTDOOR AIR 1265 CFM X 59.2 0.2 WHEN INFILTRATION IS TO BE OFFSET, REFER TO PAGE 92 TO DETERMINE "CFM OUTDOOR AIR." 4. WHEN INFILTRATION IS NOT TO BE OFFSET, AND "CFM VENTILATION IS LESS THAN "CFM INFILTRATION," THEN THE EXCESS INFILTRAITON IS ACCOUNTED FORHERE. SENSIBLE : 1265 CFM X 24 0.2 LATENT : 1265 CFM X 59.2 0.2 RETURN DUCT RETURN DUCT HEAT GAIN % + LEAK GAIN % HP DEHUM. & PUMP % + PIPE LOSS % * IF THIS DIFF TEMP IS TOO HIGH, DETERMINE SUPPLY CFM FOR DESIRED DIFFERENCE BY SUPPLY AIR QUANTITY FORMLA. # WHEN BYPASSING MIXTURE OF OUTDOOR AND RETURN AIR, USE SUPPLY CFM WHEN BYPASSING RETURN AIR ONLY, USE DEHUMIFIED CFM. GRAND TOTAL HEAT (Btu/hr) 270,553 7 10 10 0 0 SUB TOTAL 4 (Btu/hr) 25,260 8 EFFECTIVE ROOM LATENT HEAT (Btu/hr) 58,675 EFFECTIVE ROOM TOTAL HEAT (Btu/hr) 245,293 OUTDOOR AIR HEAT 21,050 5 NOTES SUB TOTAL 3 (Btu/hr) 38,636 7 ROOM LATENT HEAT (Btu/hr) 42,500 8 RESULTING ENT & LVG CONDITIONS AT APPARATUS EFFECTIVE ROOM SENSIBLE HEAT(Btu/hr) 186,618 6 LATENT HEAT (Btu/hr) 38,636 8 APPARATUS DEWPOINT 3 & 7 SUPPLY AIR QUANTITY SUB TOTAL 2 (Btu/hr) 142,340 7 ROOM SENSIBLE HEAT (Btu/hr) 156,574 2 & 3 STORAGE 250 SQ FT X 72 X 14270 95200 SUB TOTAL 1 ( Btu/hr) 149,540 0.4 6 3 & 7 INTERNAL HEAT (Btu/hr) 146,288 DEHUMIDFIED AIR QUANTITY 5 SOLAR & TRANS. GAIN-WALLS & ROOF (Btu/hr) 1,073 CFM VENTILATION = TRANS. GAIN-EXCEPT WALLS & ROOF (Btu/hr) 1,440 CFM INFILTRATION CFM OUTDOOR AIR THRU APPARATUS 3 & 4 6 OUTDOOR AIR BF X 0.68 GR/LbX = CFM BA H.P. GR/LbX BF X 1.08 GR/Lb X (1 - BF)X1.08 FX (1 - % F , (1 - SQ.FTX1/100X BF)X0.68 LOCAL TIME SUN TIME PEAK LOAD LOCAL TIME SUN TIME VENTI- LATION INFIL- TRATION SUNGAIN OR TEMP. DIFF PEOPLE X OPEN DOORS DOORS X = EXHAUST FAN CRACK FEET X CFM/FT = ESHF EFFECTIVE SENS. HEAT = = EFFECTIVE ROOM SENS. HEAT EFFECTIVE ROOM TOTAL HEAT = ADP INDICATED ADP SELECTED ADP TEMP. RISE BF) X F - T ADP F) = F DEHUM. EFFECTIVE ROOM SENS. HEAT 1.08 X F TEMP.RISE F (RM-OUTLET AIR)* ROOM SENS. HEAT 1.08 X CFM DA 1.08 X OUTLET TEMP. DIFF. CFM SUPPLY CFM BYPASS CFM ROOM SENS. HEAT 1.08 X F DESIRE DIFF = = = CFM DA CFM SA - = EDB LDB T RM F + CFM OA CFM+ X (T OA F -T RM F) = T ED T ADP F + BF X (T EDB F -T ADP F) = T LD T EWB F , T LWB SWINGING REVOLVING DOORS SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

description

heat load

Transcript of HeatLoad Template

Page 1: HeatLoad Template

Project Name : Prepare by : Target Revision : ………………………….....………………

Location : Approved by : Sheet No. : ……………….....…….……....…………

CHAP CHAP

REF REF

HOUR OF OPERATION

GLASS SQ FT X 39 X 0.56 CONDITIONS DB WB % RH DP GR/LB

GLASS SQ FT X 158 X 0.56 OUTDOOR (OA) 96 78 45 54 118

GLASS 120 SQ FT X 11 X 0.56 ROOM (RM) 72 60 50 51 58.8

GLASS 0 SQ FT X 0 X 0.56 DIFFERENCE 24 18 -5 3 59.2

16.00 P.M QUANTITY

3 &

4

SOLAR GAIN-GLASS (Btu/hr)739 10

26

OUTDOOR AIR

COOLING LOAD CALCULATION SHEET

TABLE REFERENCE TABLE REFERENCES

ITEM AREA OR

FACTOR ESTIMATE FOR 15.00 PM

SKYLIGHT 0 SQ FT X 0 X 0.94

133 PEOPLE X 5 CFM/PERSON 665

WALL 880 SQ FT X 10 X 0.099 10000 SQ FT X 0.06 CFM/SQ FT = 600

WALL 170 SQ FT X 12 X 0.099 1265

WALL SQ FT X 0 X 0.099

WALL SQ FT X 0 X 0.099 0 12 CFM/PERSON 0

ROOF-SUN SQ FT X 0 X 0.67 2 100 CFM/DOOR 200

ROOF-SHADED SQ FT X 0 X 0.67 3500

50 0.5 25

ALL GLASS 120 SQ FT X 24 X 0.5 0

PARTITION SQ FT X 19 X 0.67 1265 CFM OA

CEILING 0 SQ FT X 10 X 0.32

FLOOR 0 SQ FT X 10 X 0.1 0.761

INFILTRATION CFM X 24 X 1.08

48 50 F

PEOPLE 133 PEOPLE X 250

POWER HP OR KW X 63 0.2 72 48 19.2

LIGHT WATT X 3.4 X 1.25

APPLIANCE ETC. X 1 9,000 CFMDA

ADDITIONAL HEAT GAIN X 0 19.2 16.11

9000

9,000 CFMSA

SAFETY FACTOR 10 % 16.11

SUPPLY DUCT + SUPPLY DUCT + FAN 9000 9,000 -

HEAT GAIN % 0 LEAK LOSS % 10 5

OUTDOOR AIR 1265 CFM X 24 F X 0.2

72 0.14 96 72 75

INFILTRATION 300 CFM X 59 GR/LB X 0.68 48 0.2 75 48 53

PEOPLE 133 PEOPLE X 200

STEAM 0 LB/HR X 1050 FROM PSYCH. CHART : 62 51

APPLIANCE ETC. 0 X 0

ADDITIONAL HEAT GAIN 0

VAPOR TRANS. 0 5 30

SAFETY FACTOR 10 % 1. USE DRY-BULB (DB) TEMPERATURE DIFFERENCE FROM TOP OF ESTIMATE FORM.

2. USE MOISTURE CONTENT (GR/LB) DIFFERENCE FROM TOP OF ESTIMATE FORM.

SUPPLY AIR DUCT LEAK LOSS 5 % 3. NORMALLY. USE "CFM VENTILATION" FOR "CFM OUTDOOR AIR" HOWEVER

OUTDOOR AIR 1265 CFM X 59.2 0.2 WHEN INFILTRATION IS TO BE OFFSET, REFER TO PAGE 92 TO DETERMINE

"CFM OUTDOOR AIR."

4. WHEN INFILTRATION IS NOT TO BE OFFSET, AND "CFM VENTILATION IS LESS THAN

"CFM INFILTRATION," THEN THE EXCESS INFILTRAITON IS ACCOUNTED FORHERE.

SENSIBLE : 1265 CFM X 24 0.2

LATENT : 1265 CFM X 59.2 0.2

RETURN DUCT RETURN DUCT

HEAT GAIN % + LEAK GAIN %

HP DEHUM. &

PUMP % + PIPE LOSS % * IF THIS DIFF TEMP IS TOO HIGH, DETERMINE SUPPLY CFM FOR DESIRED DIFFERENCE BY SUPPLY

AIR QUANTITY FORMLA. #

WHEN BYPASSING MIXTURE OF OUTDOOR AND RETURN AIR, USE SUPPLY CFM WHEN BYPASSING

RETURN AIR ONLY, USE DEHUMIFIED CFM.GRAND TOTAL HEAT (Btu/hr) 270,553

7

10 10

0 0

SUB TOTAL 4 (Btu/hr) 25,260

8

EFFECTIVE ROOM LATENT HEAT (Btu/hr) 58,675

EFFECTIVE ROOM TOTAL HEAT (Btu/hr) 245,293

OUTDOOR AIR HEAT 21,050

5

NOTES

SUB TOTAL 3 (Btu/hr) 38,636

7 ROOM LATENT HEAT (Btu/hr) 42,500

8

RESULTING ENT & LVG CONDITIONS AT APPARATUS

EFFECTIVE ROOM SENSIBLE HEAT(Btu/hr) 186,618

6

LATENT HEAT (Btu/hr) 38,636

8

APPARATUS DEWPOINT

3 &

7

SUPPLY AIR QUANTITY

SUB TOTAL 2 (Btu/hr) 142,340

7

ROOM SENSIBLE HEAT (Btu/hr) 156,574

2 &

3 STORAGE 250 SQ FT X 72 X

14270

95200

SUB TOTAL 1 ( Btu/hr)149,540

0.4

6

3 &

7

INTERNAL HEAT (Btu/hr) 146,288

DEHUMIDFIED AIR QUANTITY

5SOLAR & TRANS. GAIN-WALLS & ROOF (Btu/hr)

1,073

CFM VENTILATION =

TRANS. GAIN-EXCEPT WALLS & ROOF (Btu/hr)1,440

CFM INFILTRATION

CFM OUTDOOR AIR THRU APPARATUS

3 &

4

6

OUTDOOR AIR

BF X 0.68

GR/LbX

=

CFMBA

H.P.

GR/LbX

BF X 1.08

GR/Lb X (1 -

BF)X1.08 FX (1 -

%

F ,

(1 -

SQ.FTX1/100X

BF)X0.68

LOCAL TIME SUN TIME

PEAK LOAD LOCAL TIME SUN TIME

VENTI- LATION

INFIL- TRATION

SUNGAIN OR TEMP. DIFF

PEOPLE X

OPEN DOORS DOORS X =

EXHAUST FAN

CRACK FEET X CFM/FT =

ESHF EFFECTIVE SENS. HEAT

=

= EFFECTIVE ROOM SENS. HEAT

EFFECTIVE ROOM TOTAL HEAT =

ADP INDICATED ADP SELECTED ADP

TEMP. RISE

BF) X F - TADP F) = F

DEHUM. EFFECTIVE ROOM SENS. HEAT

1.08 X FTEMP.RISE

F(RM-OUTLET AIR)* ROOM SENS. HEAT 1.08 X CFMDA 1.08 X

OUTLET TEMP. DIFF.

CFM

SUPPLY CFM

BYPASS CFM

ROOM SENS. HEAT

1.08 X FDESIRE DIFF

=

=

=

CFMDA CFM SA - =

EDB

LDB

TRM F + CFMOA

CFM+

X (TOA F -TRM F) = TED

TADP F + BF X (TEDB F -TADP F) = TLD

TEWB F , TLWB

SWINGING REVOLVING DOORS

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 2: HeatLoad Template

B10Cell:

Solar gain-glass canComment:

calculate by two method . First is for "With the Storage Factor",use the description of case 1. Second is for "without the Storage Factor",use the description of case 2.

C11Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E11Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G11Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

J11Cell:

Out door & Room conditionComment:

- Outdoor condition see Table 1-3 Page10-19

- Room Condition see Table 4-5, Page 20-23

C12Cell:

Windows area , sq ftComment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 3: HeatLoad Template

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E12Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G12Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C13Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E13Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 4: HeatLoad Template

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G13Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C14Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E14Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G14Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 5: HeatLoad Template

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C15Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru the vertical exposure.; Chapter 3

E15Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G15Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

K16Cell:

People, PersonComment:

Amount of people in the A/C area.

M16Cell:

Ventilation rate, CFM/PersonComment:

Ventilation rate base on the quantity of person in

conditioning space. (Table45, Page97)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 6: HeatLoad Template

C17Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E17Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G17Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

M17Cell:

Ventilation rate, CFM/Sq.ftComment:

Ventilation rate base on the size ot the

conditioning space. (Table45, Page97)

C18Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E18Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G18Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

C19Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E19Cell:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 7: HeatLoad Template

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G19Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

C20Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E20Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G20Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

L20Cell:

People, PersonComment:

Amount of people in the A/C area.

M20Cell:

Infiltration rateComment:

Infiltration rate base on number of people , See Table41, Page 90

C21Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E21Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 20, ,Page 63 ) and

Correction number (Table20A , Page 63,64)

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 8: HeatLoad Template

G21Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of Roof material (Table 27,28,Page 71,72 )

L21Cell:

Door, Comment:

The numbe of open door of the A/C area.

M21Cell:

Infiltration rateComment:

Infiltration rate base on number of opening doors , See Table41, Page 90

C22Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E22Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 20, ,Page 63 ) and

Correction number (Table20A , Page 63,64)

G22Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of Roof material (Table 27,28,Page 71,72 )

O22Cell:

Exhaust capacity ,CFMComment:

Exhaust capacity of the system

C24Cell:

Glassed area , sq ftComment:

Heat transmission area thu glass except wall & roof.

E24Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G24Cell:

U Value of glass ,Btu/hr-sq.ft-F Comment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 9: HeatLoad Template

Transmission Coefficient value of Windows,

skylights, doors& Glass block (Table 33, Page 76)

C25Cell:

Partition area , sq ftComment:

Heat transmission area thu partition except wall & roof.

E25Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween another side of partition and air conditioning room temperature.

G25Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Partitions(Table 25,26, Page 69,70)

C26Cell:

Ceiling area , sq ftComment:

Heat transmission area thu ceilingexcept wall & roof.

E26Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween above ceiling and air conditioning room temperature.

G26Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Ceiling or floor(Table 29,30 Page 73,74)

C27Cell:

Floor area , sq ftComment:

Heat transmission area thu floorexcept wall & roof.

E27Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween under floor temperature and air conditioning room temperature.

G27Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Ceiling or floor(Table 29,30 Page 73,74)

C28Cell:

Infiltration , cfmComment:

Ignore this value in case of ventilation excess Infiltration of air thu window,door,crack or swinging door, (See note 4)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 10: HeatLoad Template

E28Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

L30Cell:

Apparatus dewpointComment:

Define from Table 65,Page or Psychrometric chart Fig 33 ,Page116

C31Cell:

People, PersonComment:

Amount of people in the A/C area.

G31Cell:

Heat gain from people, Btu/hrComment:

Sensible heat release from body when they are

doing the activity (Table 48 ,Page 100)

C32Cell:

Power, kwComment:

Grossory of power of operating motor in the A/C area. It can generate heat to be the cooling load.

G32Cell:

Heat gain from electric motor, Btu/hrComment:

Sensible heat release from motor into the A/C

area (Table 53 ,Page 105)

C33Cell:

Power, kwComment:

Grossory of power of lighting in the A/C area. It can generate heat to be the cooling load.

G33Cell:

Heat gain from light, Btu/hrComment:

Sensible heat release from lights into the A/C

area (Table 49 ,Page 101)

D34Cell:

Heat gain from appliance, Btu/hrComment:

Grossory of power of appliance in the A/C area. It can generate sensible heat to be the cooling load.(Table 50,51,52 Page101,103)

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 11: HeatLoad Template

G34Cell:

Correction Factor of ApplianceComment:

Factoc of Appliance for the adjustment of each situation of cooling load.(Bottom of Table 50,51,52)

D35Cell:

Additional heat gain, Btu/hrComment:

Heat gain from pipe or tank located in A/C area.(Table 54-57 Page107-109)

G35Cell:

Correction Factor of Additional heat gainComment:

Factoc of additional heat gain for the adjustment of each situation of cooling load.(Bottom of Table 54-57)

C37Cell:

Floor area of A/C space, sq.ftComment:

Floor area of air conditioning space where is influenced by the temperature swing effect. The temperature swing effect will reduce the sensible heat gain. Because of some heat gain is stored in the building .It doesn't release all of it at the peak

rate.

E37Cell:

Desired temperature swing, FComment:

Recommended inside design condition. The temperature swing value depend on each type of building function. (Table 4 ,Page 20)

G37Cell:

Storage FactorComment:

Factor of storage heat gain depend on the load pattern, weight of material surrounding the space and hour of operation.(Table 13,Page 37)

C40Cell:

Safety FactorComment:

Factor for the uncertainly of survey. The value in the range of 0%-5%.To be added to the room sensible heat. ( Chapter 7,Page112)

C43Cell:

Heat gain to supply duct.%Comment:

Heat gain to supply duct in case of the cooled air duct go through the unconditioned space. Depend on amount of room sensible heat , type of duct insulation , distance and temperature difference between cooled air in duct and the unconditioned space temperature.(Chart 3,Page 110)

E43Cell:

Supply air duct leak loss,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 12: HeatLoad Template

G43Cell:

Heat gain from A/C Fan,Draw thru system,%Comment:

The generated heat gain from fan motor which distribute cooled air in the A/C system. It will effect to have more sensible heat gain. And depend on the temperature difference of room to supply air ,Fan total pressure and feature of fan installation.(Table 59,Page 111)

C44Cell:

Outdoor air,CFMComment:

Quantity of outdoor air make up to the A/C system. See note 3 on the bottom of this calculation sheet (Table45,Page97 and Table 43, Page92)

E44Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G44Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C47Cell:

Infiltration , cfmComment:

Ignore this value in case of ventilation excess Infiltration of air thu window,door,crack or swinging door, (See note 4)

E47Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

C48Cell:

People, PersonComment:

Amount of people in the A/C area.

E48Cell:

Heat gain from people, Btu/hrComment:

Latent heat release from body when they are

doing the activity (Table 48 ,Page 100)

C49Cell:

Steam , Lb/HrComment:

Amount of steam escape to conditioned space

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 13: HeatLoad Template

D50Cell:

Heat gain from appliance, Btu/hrComment:

Grossory of power of appliance in the A/C area. It can generate latent heat to be the cooling load.(Table 50,51,52 Page101,103)

G50Cell:

Correction Factor of ApplianceComment:

Factoc of Appliance for the adjustment of each situation of cooling load.(Bottom of Table 50,51,52)

D51Cell:

Additional heat gain, Btu/hr-sq.ftComment:

Heat gain from evaporation of free water surface in A/C space.(Table 58 Page109)

C52Cell:

Moisture material area ,sq.ftComment:

Face area of moisture material which can evaporate into A/C space.

E52Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G52Cell:

Permeance, Btu/(hr)(100sq.ft)(Gr/Lb diff)Comment:

Diffusion of moisture material into the A/C space.(Table 40 Page84-85)

C54Cell:

Safety FactorComment:

Factor for the uncertainly of survey. The value in the range of 0%-5%.To be added to the room latent heat. ( Chapter 7,Page112)

E56Cell:

Supply air duct leak loss,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)

C57Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the latent heat gain by the mixed moisture.SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 14: HeatLoad Template

See note 3

E57Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G57Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C61Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the sensible heat gain by the temperature difference. See note 3

E61Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G61Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C62Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the latent heat gain by the mixed moisture.

See note 3

E62Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G62Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C63Cell:

Heat gain to return duct.%Comment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 15: HeatLoad Template

Heat gain to return duct in case of the cooled air duct go through the unconditioned space. Depend on amount of room sensible heat , type of duct insulation , distance and temperature difference between cooled air in duct and the unconditioned space temperature.(Chart 3,Page 110)

G63Cell:

Return air duct leak gain,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)

C65Cell:

Heat gain from dehumidifier pump,%Comment:

With dehumidifier systems, the horsepower required to pump the water adds heat to the system.This heat will be an addition to the grand total heat.(Table60 ,Page 113)

G65Cell:

Heat gain from dehumidifier pipe,%Comment:

- Very little external piping ~1%

- Average external piping ~2%

- extensive external piping ~4%

Chapter 7,Page 113

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 16: HeatLoad Template

Project Name : GWS-Frist Floor - C2 Prepare by : Target Revision : ………………………….....………………

Location : GWS- Target Approved by : Sheet No. : ……………….....…….……....…………

CHAP CHAP

REF REF

HOUR OF OPERATION

GLASS 395 SQ FT X 39 X 0.56 CONDITIONS DB WB % RH DP GR/LB

GLASS 1193 SQ FT X 158 X 0.56 OUTDOOR (OA) 96 78 45 54 118

GLASS 120 SQ FT X 11 X 0.56 ROOM (RM) 72 60 50 51 58.8

GLASS 0 SQ FT X 0 X 0.56 DIFFERENCE 24 18 -5 3 59.2

SKYLIGHT 0 SQ FT X 0 X 0.94

133 PEOPLE X 15 CFM/PERSON 1995

WALL 880 SQ FT X 10 X 0.099 10000 SQ FT X 0.25 CFM/SQ FT = 2500

WALL 170 SQ FT X 12 X 0.099 2500

WALL SQ FT X 0 X 0.099

WALL SQ FT X 0 X 0.099 0 12 CFM/PERSON 0

ROOF-SUN SQ FT X 0 X 0.67 2 100 CFM/DOOR 200

ROOF-SHADED SQ FT X 0 X 0.67 3500

50 0.5 25

ALL GLASS 1708 SQ FT X 24 X 0.5 0

PARTITION SQ FT X 19 X 0.67 2500 CFM OA

CEILING 0 SQ FT X 10 X 0.32

FLOOR 0 SQ FT X 10 X 0.1 0.829

INFILTRATION CFM X 24 X 1.08

48 50 F

PEOPLE 133 PEOPLE X 250

POWER HP OR KW X 63 0.2 72 48 19.2

LIGHT WATT X 3.4 X 1.25

APPLIANCE ETC. X 1 17,437 CFMDA

ADDITIONAL HEAT GAIN X 0 19.2 16.10

17437

17,437 CFMSA

SAFETY FACTOR 10 % 16.10

SUPPLY DUCT + SUPPLY DUCT + FAN 17437 17,437 -

HEAT GAIN % 0 LEAK LOSS % 10 5

OUTDOOR AIR 2500 CFM X 24 F X 0.2

72 0.14 96 72 75

INFILTRATION 300 CFM X 59 GR/LB X 0.68 48 0.2 75 48 53

PEOPLE 133 PEOPLE X 200

STEAM 0 LB/HR X 1050 FROM PSYCH. CHART : 62 51

APPLIANCE ETC. 0 X 0

ADDITIONAL HEAT GAIN 0

VAPOR TRANS. 0 5 30

SAFETY FACTOR 10 % 1. USE DRY-BULB (DB) TEMPERATURE DIFFERENCE FROM TOP OF ESTIMATE FORM.

2. USE MOISTURE CONTENT (GR/LB) DIFFERENCE FROM TOP OF ESTIMATE FORM.

SUPPLY AIR DUCT LEAK LOSS 5 % 3. NORMALLY. USE "CFM VENTILATION" FOR "CFM OUTDOOR AIR" HOWEVER

OUTDOOR AIR 2500 CFM X 59.2 0.2 WHEN INFILTRATION IS TO BE OFFSET, REFER TO PAGE 92 TO DETERMINE

"CFM OUTDOOR AIR."

4. WHEN INFILTRATION IS NOT TO BE OFFSET, AND "CFM VENTILATION IS LESS THAN

"CFM INFILTRATION," THEN THE EXCESS INFILTRAITON IS ACCOUNTED FORHERE.

SENSIBLE : 2500 CFM X 24 0.2

LATENT : 2500 CFM X 59.2 0.2

RETURN DUCT RETURN DUCT

HEAT GAIN % + LEAK GAIN %

HP DEHUM. &

PUMP % + PIPE LOSS % * IF THIS DIFF TEMP IS TOO HIGH, DETERMINE SUPPLY CFM FOR DESIRED DIFFERENCE BY SUPPLY

AIR QUANTITY FORMLA. #

WHEN BYPASSING MIXTURE OF OUTDOOR AND RETURN AIR, USE SUPPLY CFM WHEN BYPASSING

RETURN AIR ONLY, USE DEHUMIFIED CFM.GRAND TOTAL HEAT (Btu/hr) 485,955

7

10 10

0 0

SUB TOTAL 4 (Btu/hr) 49,920

8

EFFECTIVE ROOM LATENT HEAT (Btu/hr) 74,468

EFFECTIVE ROOM TOTAL HEAT (Btu/hr) 436,035

OUTDOOR AIR HEAT 41,600

5

NOTES

SUB TOTAL 3 (Btu/hr) 38,636

7 ROOM LATENT HEAT (Btu/hr) 42,500

8

RESULTING ENT & LVG CONDITIONS AT APPARATUS

EFFECTIVE ROOM SENSIBLE HEAT(Btu/hr) 361,568

6

LATENT HEAT (Btu/hr) 38,636

8

APPARATUS DEWPOINT

3 &

7

SUPPLY AIR QUANTITY

SUB TOTAL 2 (Btu/hr) 275,579

7

ROOM SENSIBLE HEAT (Btu/hr) 303,137

2 &

3 STORAGE 250 SQ FT X 72 X

14270

95200

SUB TOTAL 1 ( Btu/hr)282,779

0.4

6

3 &

7

INTERNAL HEAT (Btu/hr) 146,288

DEHUMIDFIED AIR QUANTITY

5SOLAR & TRANS. GAIN-WALLS & ROOF (Btu/hr)

1,073

CFM VENTILATION =

TRANS. GAIN-EXCEPT WALLS & ROOF (Btu/hr)20,496

CFM INFILTRATION

CFM OUTDOOR AIR THRU APPARATUS

16.00 P.M QUANTITY

3 &

4

SOLAR GAIN-GLASS (Btu/hr)114,923 10

26

OUTDOOR AIR

COOLING LOAD CALCULATION SHEET

TABLE REFERENCE TABLE REFERENCES

ITEM AREA OR

FACTOR ESTIMATE FOR 15.00 PM

BF X 0.68

GR/LbX

=

CFMBA

H.P.

GR/LbX

BF X 1.08

GR/Lb X (1 -

BF)X1.08 FX (1 -

%

F ,

(1 -

SQ.FTX1/100X

BF)X0.68

LOCAL TIME SUN TIME

PEAK LOAD LOCAL TIME SUN TIME

VENTI- LATION

INFIL- TRATION

SUNGAIN OR TEMP. DIFF

PEOPLE X

OPEN DOORS DOORS X =

EXHAUST FAN

CRACK FEET X CFM/FT =

ESHF EFFECTIVE SENS. HEAT

=

= EFFECTIVE ROOM SENS. HEAT

EFFECTIVE ROOM TOTAL HEAT =

ADP INDICATED ADP SELECTED ADP

TEMP. RISE

BF) X F - TADP F) = F

DEHUM. EFFECTIVE ROOM SENS. HEAT

1.08 X FTEMP.RISE

F(RM-OUTLET AIR)* ROOM SENS. HEAT 1.08 X CFMDA 1.08 X

OUTLET TEMP. DIFF.

CFM

SUPPLY CFM

BYPASS CFM

ROOM SENS. HEAT

1.08 X FDESIRE DIFF

=

=

=

CFMDA CFM SA - =

EDB

LDB

TRM F + CFMOA

CFM+

X (TOA F -TRM F) = TED

TADP F + BF X (TEDB F -TADP F) = TLD

TEWB F , TLWB

SWINGING REVOLVING DOORS

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 17: HeatLoad Template

B10Cell:

Solar gain-glass canComment:

calculate by two method . First is for "With the Storage Factor",use the description of case 1. Second is for "without the Storage Factor",use the description of case 2.

C11Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E11Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G11Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

J11Cell:

Out door & Room conditionComment:

- Outdoor condition see Table 1-3 Page10-19

- Room Condition see Table 4-5, Page 20-23

C12Cell:

Windows area , sq ftComment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 18: HeatLoad Template

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E12Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G12Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C13Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E13Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 19: HeatLoad Template

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G13Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C14Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E14Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G14Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 20: HeatLoad Template

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C15Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru the vertical exposure.; Chapter 3

E15Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G15Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

K16Cell:

People, PersonComment:

Amount of people in the A/C area.

M16Cell:

Ventilation rate, CFM/PersonComment:

Ventilation rate base on the quantity of person in

conditioning space. (Table45, Page97)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 21: HeatLoad Template

C17Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E17Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G17Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

M17Cell:

Ventilation rate, CFM/Sq.ftComment:

Ventilation rate base on the size ot the

conditioning space. (Table45, Page97)

C18Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E18Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G18Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

C19Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E19Cell:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 22: HeatLoad Template

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G19Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

C20Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E20Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G20Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

L20Cell:

People, PersonComment:

Amount of people in the A/C area.

M20Cell:

Infiltration rateComment:

Infiltration rate base on number of people , See Table41, Page 90

C21Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E21Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 20, ,Page 63 ) and

Correction number (Table20A , Page 63,64)

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 23: HeatLoad Template

G21Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of Roof material (Table 27,28,Page 71,72 )

L21Cell:

Door, Comment:

The numbe of open door of the A/C area.

M21Cell:

Infiltration rateComment:

Infiltration rate base on number of opening doors , See Table41, Page 90

C22Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E22Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 20, ,Page 63 ) and

Correction number (Table20A , Page 63,64)

G22Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of Roof material (Table 27,28,Page 71,72 )

O22Cell:

Exhaust capacity ,CFMComment:

Exhaust capacity of the system

C24Cell:

Glassed area , sq ftComment:

Heat transmission area thu glass except wall & roof.

E24Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G24Cell:

U Value of glass ,Btu/hr-sq.ft-F Comment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 24: HeatLoad Template

Transmission Coefficient value of Windows,

skylights, doors& Glass block (Table 33, Page 76)

C25Cell:

Partition area , sq ftComment:

Heat transmission area thu partition except wall & roof.

E25Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween another side of partition and air conditioning room temperature.

G25Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Partitions(Table 25,26, Page 69,70)

C26Cell:

Ceiling area , sq ftComment:

Heat transmission area thu ceilingexcept wall & roof.

E26Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween above ceiling and air conditioning room temperature.

G26Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Ceiling or floor(Table 29,30 Page 73,74)

C27Cell:

Floor area , sq ftComment:

Heat transmission area thu floorexcept wall & roof.

E27Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween under floor temperature and air conditioning room temperature.

G27Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Ceiling or floor(Table 29,30 Page 73,74)

C28Cell:

Infiltration , cfmComment:

Ignore this value in case of ventilation excess Infiltration of air thu window,door,crack or swinging door, (See note 4)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 25: HeatLoad Template

E28Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

L30Cell:

Apparatus dewpointComment:

Define from Table 65,Page or Psychrometric chart Fig 33 ,Page116

C31Cell:

People, PersonComment:

Amount of people in the A/C area.

G31Cell:

Heat gain from people, Btu/hrComment:

Sensible heat release from body when they are

doing the activity (Table 48 ,Page 100)

C32Cell:

Power, kwComment:

Grossory of power of operating motor in the A/C area. It can generate heat to be the cooling load.

G32Cell:

Heat gain from electric motor, Btu/hrComment:

Sensible heat release from motor into the A/C

area (Table 53 ,Page 105)

C33Cell:

Power, kwComment:

Grossory of power of lighting in the A/C area. It can generate heat to be the cooling load.

G33Cell:

Heat gain from light, Btu/hrComment:

Sensible heat release from lights into the A/C

area (Table 49 ,Page 101)

D34Cell:

Heat gain from appliance, Btu/hrComment:

Grossory of power of appliance in the A/C area. It can generate sensible heat to be the cooling load.(Table 50,51,52 Page101,103)

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 26: HeatLoad Template

G34Cell:

Correction Factor of ApplianceComment:

Factoc of Appliance for the adjustment of each situation of cooling load.(Bottom of Table 50,51,52)

D35Cell:

Additional heat gain, Btu/hrComment:

Heat gain from pipe or tank located in A/C area.(Table 54-57 Page107-109)

G35Cell:

Correction Factor of Additional heat gainComment:

Factoc of additional heat gain for the adjustment of each situation of cooling load.(Bottom of Table 54-57)

C37Cell:

Floor area of A/C space, sq.ftComment:

Floor area of air conditioning space where is influenced by the temperature swing effect. The temperature swing effect will reduce the sensible heat gain. Because of some heat gain is stored in the building .It doesn't release all of it at the peak

rate.

E37Cell:

Desired temperature swing, FComment:

Recommended inside design condition. The temperature swing value depend on each type of building function. (Table 4 ,Page 20)

G37Cell:

Storage FactorComment:

Factor of storage heat gain depend on the load pattern, weight of material surrounding the space and hour of operation.(Table 13,Page 37)

C40Cell:

Safety FactorComment:

Factor for the uncertainly of survey. The value in the range of 0%-5%.To be added to the room sensible heat. ( Chapter 7,Page112)

C43Cell:

Heat gain to supply duct.%Comment:

Heat gain to supply duct in case of the cooled air duct go through the unconditioned space. Depend on amount of room sensible heat , type of duct insulation , distance and temperature difference between cooled air in duct and the unconditioned space temperature.(Chart 3,Page 110)

E43Cell:

Supply air duct leak loss,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 27: HeatLoad Template

G43Cell:

Heat gain from A/C Fan,Draw thru system,%Comment:

The generated heat gain from fan motor which distribute cooled air in the A/C system. It will effect to have more sensible heat gain. And depend on the temperature difference of room to supply air ,Fan total pressure and feature of fan installation.(Table 59,Page 111)

C44Cell:

Outdoor air,CFMComment:

Quantity of outdoor air make up to the A/C system. See note 3 on the bottom of this calculation sheet (Table45,Page97 and Table 43, Page92)

E44Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G44Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C47Cell:

Infiltration , cfmComment:

Ignore this value in case of ventilation excess Infiltration of air thu window,door,crack or swinging door, (See note 4)

E47Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

C48Cell:

People, PersonComment:

Amount of people in the A/C area.

E48Cell:

Heat gain from people, Btu/hrComment:

Latent heat release from body when they are

doing the activity (Table 48 ,Page 100)

C49Cell:

Steam , Lb/HrComment:

Amount of steam escape to conditioned space

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 28: HeatLoad Template

D50Cell:

Heat gain from appliance, Btu/hrComment:

Grossory of power of appliance in the A/C area. It can generate latent heat to be the cooling load.(Table 50,51,52 Page101,103)

G50Cell:

Correction Factor of ApplianceComment:

Factoc of Appliance for the adjustment of each situation of cooling load.(Bottom of Table 50,51,52)

D51Cell:

Additional heat gain, Btu/hr-sq.ftComment:

Heat gain from evaporation of free water surface in A/C space.(Table 58 Page109)

C52Cell:

Moisture material area ,sq.ftComment:

Face area of moisture material which can evaporate into A/C space.

E52Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G52Cell:

Permeance, Btu/(hr)(100sq.ft)(Gr/Lb diff)Comment:

Diffusion of moisture material into the A/C space.(Table 40 Page84-85)

C54Cell:

Safety FactorComment:

Factor for the uncertainly of survey. The value in the range of 0%-5%.To be added to the room latent heat. ( Chapter 7,Page112)

E56Cell:

Supply air duct leak loss,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)

C57Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the latent heat gain by the mixed moisture.SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 29: HeatLoad Template

See note 3

E57Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G57Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C61Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the sensible heat gain by the temperature difference. See note 3

E61Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G61Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C62Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the latent heat gain by the mixed moisture.

See note 3

E62Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G62Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C63Cell:

Heat gain to return duct.%Comment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 30: HeatLoad Template

Heat gain to return duct in case of the cooled air duct go through the unconditioned space. Depend on amount of room sensible heat , type of duct insulation , distance and temperature difference between cooled air in duct and the unconditioned space temperature.(Chart 3,Page 110)

G63Cell:

Return air duct leak gain,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)

C65Cell:

Heat gain from dehumidifier pump,%Comment:

With dehumidifier systems, the horsepower required to pump the water adds heat to the system.This heat will be an addition to the grand total heat.(Table60 ,Page 113)

G65Cell:

Heat gain from dehumidifier pipe,%Comment:

- Very little external piping ~1%

- Average external piping ~2%

- extensive external piping ~4%

Chapter 7,Page 113

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 31: HeatLoad Template

Project Name : GWS-Frist Floor - C2 Prepare by : RSP Calculation Revision : ………………………….....………………

Location : GWS- Target Approved by : Sheet No. : ……………….....…….……....…………

CHAP CHAP

REF REF

HOUR OF OPERATION

GLASS 395 SQ FT X 39 X 0.56 CONDITIONS DB WB % RH DP GR/LB

GLASS 1193 SQ FT X 158 X 0.56 OUTDOOR (OA) 96 78 45 54 118

GLASS 120 SQ FT X 11 X 0.56 ROOM (RM) 72 60 50 51 58.8

GLASS 0 SQ FT X 0 X 0.56 DIFFERENCE 24 18 -5 3 59.2

SKYLIGHT 0 SQ FT X 0 X 0.94

133 PEOPLE X 11 CFM/PERSON 1463

WALL 880 SQ FT X 10 X 0.099 10000 SQ FT X 0.06 CFM/SQ FT = 600

WALL 170 SQ FT X 12 X 0.099 1463

WALL SQ FT X 0 X 0.099

WALL SQ FT X 0 X 0.099 0 12 CFM/PERSON 0

ROOF-SUN SQ FT X 0 X 0.67 2 100 CFM/DOOR 200

ROOF-SHADED SQ FT X 0 X 0.67 3500

50 0.5 25

ALL GLASS 1708 SQ FT X 24 X 0.5 0

PARTITION SQ FT X 19 X 0.67 1463 CFM OA

CEILING 0 SQ FT X 10 X 0.32

FLOOR 0 SQ FT X 10 X 0.1 0.867

INFILTRATION CFM X 24 X 1.08

48 50 F

PEOPLE 133 PEOPLE X 250

POWER HP OR KW X 63 0.2 72 48 19.2

LIGHT WATT X 3.4 X 1.25

APPLIANCE ETC. X 1 15,831 CFMDA

ADDITIONAL HEAT GAIN X 0 19.2 16.54

15831

15,831 CFMSA

SAFETY FACTOR 10 % 16.54

SUPPLY DUCT + SUPPLY DUCT + FAN 15831 15,831 -

HEAT GAIN % 0 LEAK LOSS % 10 5

OUTDOOR AIR 600 CFM X 24 F X 0.2

72 0.09 96 72 74

INFILTRATION 300 CFM X 59 GR/LB X 0.68 48 0.2 74 48 53

PEOPLE 133 PEOPLE X 200

STEAM 0 LB/HR X 1050 FROM PSYCH. CHART : 62 51

APPLIANCE ETC. 0 X 0

ADDITIONAL HEAT GAIN 0

VAPOR TRANS. 0 5 30

SAFETY FACTOR 10 % 1. USE DRY-BULB (DB) TEMPERATURE DIFFERENCE FROM TOP OF ESTIMATE FORM.

2. USE MOISTURE CONTENT (GR/LB) DIFFERENCE FROM TOP OF ESTIMATE FORM.

SUPPLY AIR DUCT LEAK LOSS 5 % 3. NORMALLY. USE "CFM VENTILATION" FOR "CFM OUTDOOR AIR" HOWEVER

OUTDOOR AIR 600 CFM X 59.2 0.2 WHEN INFILTRATION IS TO BE OFFSET, REFER TO PAGE 92 TO DETERMINE

"CFM OUTDOOR AIR."

4. WHEN INFILTRATION IS NOT TO BE OFFSET, AND "CFM VENTILATION IS LESS THAN

"CFM INFILTRATION," THEN THE EXCESS INFILTRAITON IS ACCOUNTED FORHERE.

SENSIBLE : 600 CFM X 24 0.2

LATENT : 600 CFM X 59.2 0.2

RETURN DUCT RETURN DUCT

HEAT GAIN % + LEAK GAIN %

HP DEHUM. &

PUMP % + PIPE LOSS % * IF THIS DIFF TEMP IS TOO HIGH, DETERMINE SUPPLY CFM FOR DESIRED DIFFERENCE BY SUPPLY

AIR QUANTITY FORMLA. #

WHEN BYPASSING MIXTURE OF OUTDOOR AND RETURN AIR, USE SUPPLY CFM WHEN BYPASSING

RETURN AIR ONLY, USE DEHUMIFIED CFM.

264,244

378,443

SUB TOTAL 4 (Btu/hr) 11,981

10

0

10

0

282,748

257,044

GRAND TOTAL HEAT (Btu/hr) 390,424

78

7

ROOM LATENT HEAT (Btu/hr) 42,500

EFFECTIVE ROOM LATENT HEAT (Btu/hr) 50,172

EFFECTIVE ROOM TOTAL HEAT (Btu/hr)

5

38,636

3 &

78

6

EFFECTIVE ROOM SENSIBLE HEAT(Btu/hr) 328,271

SUB TOTAL 3 (Btu/hr)

0.4X

7

STORAGE SQ FT X250 72

SUB TOTAL 2 (Btu/hr)

3 &

4

26

5

8

63 &

7

75752

2 &

3

SUPPLY AIR QUANTITY

CFM INFILTRATION

CFM OUTDOOR AIR THRU APPARATUS

APPARATUS DEWPOINT

TABLE REFERENCE

ITEM 16.00 P.M

TABLE REFERENCES

FACTOR AREA OR

QUANTITY

NOTES

RESULTING ENT & LVG CONDITIONS AT APPARATUS

DEHUMIDFIED AIR QUANTITY

127,752

15000

COOLING LOAD CALCULATION SHEET

SOLAR GAIN-GLASS (Btu/hr)

TRANS. GAIN-EXCEPT WALLS & ROOF (Btu/hr)20,496

10

CFM VENTILATION =

114,923

1,073 SOLAR & TRANS. GAIN-WALLS & ROOF (Btu/hr)

OUTDOOR AIR HEAT 9,984

15.00 PM

38,636 LATENT HEAT (Btu/hr)

ROOM SENSIBLE HEAT (Btu/hr)

INTERNAL HEAT (Btu/hr)

ESTIMATE FOR

OUTDOOR AIR

SUB TOTAL 1 ( Btu/hr)

BF X 0.68

GR/LbX

=

CFMBA

H.P.

GR/LbX

BF X 1.08

GR/Lb X (1 -

BF)X1.08 FX (1 -

%

F ,

(1 -

SQ.FTX1/100X

BF)X0.68

LOCAL TIME SUN TIME

PEAK LOAD LOCAL TIME SUN TIME

VENTI- LATION

INFIL- TRATION

SUNGAIN OR TEMP. DIFF

PEOPLE X

OPEN DOORS DOORS X =

EXHAUST FAN

CRACK FEET X CFM/FT =

ESHF EFFECTIVE SENS. HEAT

=

= EFFECTIVE ROOM SENS. HEAT

EFFECTIVE ROOM TOTAL HEAT =

ADP INDICATED ADP SELECTED ADP

TEMP. RISE

BF) X F - TADP F) = F

DEHUM. EFFECTIVE ROOM SENS. HEAT

1.08 X FTEMP.RISE

F(RM-OUTLET AIR)* ROOM SENS. HEAT 1.08 X CFMDA 1.08 X

OUTLET TEMP. DIFF.

CFM

SUPPLY CFM

BYPASS CFM

ROOM SENS. HEAT

1.08 X FDESIRE DIFF

=

=

=

CFMDA CFM SA - =

EDB

LDB

TRM F + CFMOA

CFM+

X (TOA F -TRM F) = TED

TADP F + BF X (TEDB F -TADP F) = TLD

TEWB F , TLWB

SWINGING REVOLVING DOORS

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 32: HeatLoad Template

B10Cell:

Solar gain-glass canComment:

calculate by two method . First is for "With the Storage Factor",use the description of case 1. Second is for "without the Storage Factor",use the description of case 2.

C11Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E11Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G11Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

J11Cell:

Out door & Room conditionComment:

- Outdoor condition see Table 1-3 Page10-19

- Room Condition see Table 4-5, Page 20-23

C12Cell:

Windows area , sq ftComment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 33: HeatLoad Template

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E12Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G12Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C13Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E13Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 34: HeatLoad Template

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G13Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C14Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru at varies exposure. ( N,E,S,W,NE,SE

,SW,NW) , Chapter 3

E14Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G14Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 35: HeatLoad Template

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

C15Cell:

Windows area , sq ftComment:

Area of glassed structure that solar haet gain get thru the vertical exposure.; Chapter 3

E15Cell:

Comment:

Solar heat gain thru glass,Btu/(hr)-(sq ft)

Case 1; With Storage factor

Multiplying of "Peak solar heat gain thru ordinary glass" (at the selected month , location ,exposure) and " Storage load factors of solar heat gain".

( Table 6, Page 29 for Peak solar heat gain thru ordinary glass and Table 7,8,9,10 or 11 ,Page 30-34 for Storage load factors of solar heat gain thruglass) :

Example : The peak solar heat gain for a west exposure

in July at 40 north Latitude = 164 Btu/hr-sqft (Tbl.6) and the

Storage load factor with internal shade = 0.66 for a west exposure at 4 pm ,the weight ~ 100 lb/sq ft. So, the

Solar heat gain thru glass for a west = 164x0.66 =

108.24 Btu/hr

Case 2 ;Without Storage factor

Solar heat gain thru ordinary glass" (at the selected month , location ,exposure) , ( Table15, Page 44-49 )

G15Cell:

Comment:

Over all Factor for solar heat gain

Case 1: With storage factor

Factor for adjustment of the value of solar heat gain as the effect of Shading Device or Glass block . And the correction factor(Table 16,Page 52, Over all Factors for solar heat gain thru glass , Table 17, Page 54, Solar heat gain for glass block)

Example : Factor of solar heat gain thru glassfor the Regular plate Glass = 0.94

Case 2 : Without storage factor

Correction factor on the bottom of Table 15, Page 44-49

K16Cell:

People, PersonComment:

Amount of people in the A/C area.

M16Cell:

Ventilation rate, CFM/PersonComment:

Ventilation rate base on the quantity of person in

conditioning space. (Table45, Page97)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 36: HeatLoad Template

C17Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E17Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G17Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

M17Cell:

Ventilation rate, CFM/Sq.ftComment:

Ventilation rate base on the size ot the

conditioning space. (Table45, Page97)

C18Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E18Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G18Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

C19Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E19Cell:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 37: HeatLoad Template

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G19Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

C20Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E20Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 19, ,Page 62 ) and

Correction number (Table20A , Page 63,64)

G20Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of wall material (Table 21,22,23,24,25,26 ,Page 66-70 )

L20Cell:

People, PersonComment:

Amount of people in the A/C area.

M20Cell:

Infiltration rateComment:

Infiltration rate base on number of people , See Table41, Page 90

C21Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E21Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 20, ,Page 63 ) and

Correction number (Table20A , Page 63,64)

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 38: HeatLoad Template

G21Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of Roof material (Table 27,28,Page 71,72 )

L21Cell:

Door, Comment:

The numbe of open door of the A/C area.

M21Cell:

Infiltration rateComment:

Infiltration rate base on number of opening doors , See Table41, Page 90

C22Cell:

Wall area , sq ftComment:

Area of wall or roof that conducted heat gain get thru at each exposure. ( ,E,S,W,NE,

SE,SW,NW)

E22Cell:

Equivalent temperature diff. ,Deg FComment:

Operation of Equivalent temperature difference value (wall , roof ,Table 20, ,Page 63 ) and

Correction number (Table20A , Page 63,64)

G22Cell:

Transmission Coefficient, U, (Btu/(hr)(sq ft)(deg F)Comment:

Value of Transmission Coefficient , U Value of each type of Roof material (Table 27,28,Page 71,72 )

O22Cell:

Exhaust capacity ,CFMComment:

Exhaust capacity of the system

C24Cell:

Glassed area , sq ftComment:

Heat transmission area thu glass except wall & roof.

E24Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G24Cell:

U Value of glass ,Btu/hr-sq.ft-F Comment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 39: HeatLoad Template

Transmission Coefficient value of Windows,

skylights, doors& Glass block (Table 33, Page 76)

C25Cell:

Partition area , sq ftComment:

Heat transmission area thu partition except wall & roof.

E25Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween another side of partition and air conditioning room temperature.

G25Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Partitions(Table 25,26, Page 69,70)

C26Cell:

Ceiling area , sq ftComment:

Heat transmission area thu ceilingexcept wall & roof.

E26Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween above ceiling and air conditioning room temperature.

G26Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Ceiling or floor(Table 29,30 Page 73,74)

C27Cell:

Floor area , sq ftComment:

Heat transmission area thu floorexcept wall & roof.

E27Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween under floor temperature and air conditioning room temperature.

G27Cell:

U Value of Partition ,Btu/hr-sq.ft-F Comment:

Transmission Coefficient value of Ceiling or floor(Table 29,30 Page 73,74)

C28Cell:

Infiltration , cfmComment:

Ignore this value in case of ventilation excess Infiltration of air thu window,door,crack or swinging door, (See note 4)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 40: HeatLoad Template

E28Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

L30Cell:

Apparatus dewpointComment:

Define from Table 65,Page or Psychrometric chart Fig 33 ,Page116

C31Cell:

People, PersonComment:

Amount of people in the A/C area.

G31Cell:

Heat gain from people, Btu/hrComment:

Sensible heat release from body when they are

doing the activity (Table 48 ,Page 100)

C32Cell:

Power, kwComment:

Grossory of power of operating motor in the A/C area. It can generate heat to be the cooling load.

G32Cell:

Heat gain from electric motor, Btu/hrComment:

Sensible heat release from motor into the A/C

area (Table 53 ,Page 105)

C33Cell:

Power, kwComment:

Grossory of power of lighting in the A/C area. It can generate heat to be the cooling load.

G33Cell:

Heat gain from light, Btu/hrComment:

Sensible heat release from lights into the A/C

area (Table 49 ,Page 101)

D34Cell:

Heat gain from appliance, Btu/hrComment:

Grossory of power of appliance in the A/C area. It can generate sensible heat to be the cooling load.(Table 50,51,52 Page101,103)

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 41: HeatLoad Template

G34Cell:

Correction Factor of ApplianceComment:

Factoc of Appliance for the adjustment of each situation of cooling load.(Bottom of Table 50,51,52)

D35Cell:

Additional heat gain, Btu/hrComment:

Heat gain from pipe or tank located in A/C area.(Table 54-57 Page107-109)

G35Cell:

Correction Factor of Additional heat gainComment:

Factoc of additional heat gain for the adjustment of each situation of cooling load.(Bottom of Table 54-57)

C37Cell:

Floor area of A/C space, sq.ftComment:

Floor area of air conditioning space where is influenced by the temperature swing effect. The temperature swing effect will reduce the sensible heat gain. Because of some heat gain is stored in the building .It doesn't release all of it at the peak

rate.

E37Cell:

Desired temperature swing, FComment:

Recommended inside design condition. The temperature swing value depend on each type of building function. (Table 4 ,Page 20)

G37Cell:

Storage FactorComment:

Factor of storage heat gain depend on the load pattern, weight of material surrounding the space and hour of operation.(Table 13,Page 37)

C40Cell:

Safety FactorComment:

Factor for the uncertainly of survey. The value in the range of 0%-5%.To be added to the room sensible heat. ( Chapter 7,Page112)

C43Cell:

Heat gain to supply duct.%Comment:

Heat gain to supply duct in case of the cooled air duct go through the unconditioned space. Depend on amount of room sensible heat , type of duct insulation , distance and temperature difference between cooled air in duct and the unconditioned space temperature.(Chart 3,Page 110)

E43Cell:

Supply air duct leak loss,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 42: HeatLoad Template

G43Cell:

Heat gain from A/C Fan,Draw thru system,%Comment:

The generated heat gain from fan motor which distribute cooled air in the A/C system. It will effect to have more sensible heat gain. And depend on the temperature difference of room to supply air ,Fan total pressure and feature of fan installation.(Table 59,Page 111)

C44Cell:

Outdoor air,CFMComment:

Quantity of outdoor air make up to the A/C system. See note 3 on the bottom of this calculation sheet (Table45,Page97 and Table 43, Page92)

E44Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference betaween outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G44Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C47Cell:

Infiltration , cfmComment:

Ignore this value in case of ventilation excess Infiltration of air thu window,door,crack or swinging door, (See note 4)

E47Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

C48Cell:

People, PersonComment:

Amount of people in the A/C area.

E48Cell:

Heat gain from people, Btu/hrComment:

Latent heat release from body when they are

doing the activity (Table 48 ,Page 100)

C49Cell:

Steam , Lb/HrComment:

Amount of steam escape to conditioned space

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 43: HeatLoad Template

D50Cell:

Heat gain from appliance, Btu/hrComment:

Grossory of power of appliance in the A/C area. It can generate latent heat to be the cooling load.(Table 50,51,52 Page101,103)

G50Cell:

Correction Factor of ApplianceComment:

Factoc of Appliance for the adjustment of each situation of cooling load.(Bottom of Table 50,51,52)

D51Cell:

Additional heat gain, Btu/hr-sq.ftComment:

Heat gain from evaporation of free water surface in A/C space.(Table 58 Page109)

C52Cell:

Moisture material area ,sq.ftComment:

Face area of moisture material which can evaporate into A/C space.

E52Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G52Cell:

Permeance, Btu/(hr)(100sq.ft)(Gr/Lb diff)Comment:

Diffusion of moisture material into the A/C space.(Table 40 Page84-85)

C54Cell:

Safety FactorComment:

Factor for the uncertainly of survey. The value in the range of 0%-5%.To be added to the room latent heat. ( Chapter 7,Page112)

E56Cell:

Supply air duct leak loss,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)

C57Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the latent heat gain by the mixed moisture.SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 44: HeatLoad Template

See note 3

E57Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G57Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C61Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the sensible heat gain by the temperature difference. See note 3

E61Cell:

Dry bulb temp. diff , FComment:

Dry bulb temperature difference between outdoor temperature and air conditioning room temperature. (See the data at the top of calculation sheet)

G61Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C62Cell:

Outdoor air ,CFMComment:

Amount of outdoor air make up to the A/C system

can be the latent heat gain by the mixed moisture.

See note 3

E62Cell:

Moisture content, Gr/LbComment:

Moisture content difference between outdoor and room condition., (See note 2)

G62Cell:

Bypass FactorComment:

Bypass factor is a function of the physical and operating charecteristics of the conditioning apparatus (Cooling Coil) See typical Bypass Factors (Table 61,Page127)

C63Cell:

Heat gain to return duct.%Comment:SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 45: HeatLoad Template

Heat gain to return duct in case of the cooled air duct go through the unconditioned space. Depend on amount of room sensible heat , type of duct insulation , distance and temperature difference between cooled air in duct and the unconditioned space temperature.(Chart 3,Page 110)

G63Cell:

Return air duct leak gain,%Comment:

Average supply duct leakage from the entire length of low velocity supply duct whether large and small system is around 10% of supply air quantity. Individual workmanship is the greatest variable and duct leakages from 5%-30%.(Chapter 7,Page 110)

C65Cell:

Heat gain from dehumidifier pump,%Comment:

With dehumidifier systems, the horsepower required to pump the water adds heat to the system.This heat will be an addition to the grand total heat.(Table60 ,Page 113)

G65Cell:

Heat gain from dehumidifier pipe,%Comment:

- Very little external piping ~1%

- Average external piping ~2%

- extensive external piping ~4%

Chapter 7,Page 113

SDM#1-01 , File : 239174881.xls.ms_office Date : 7/22/2014 ,Time :7:26 AM

Page 46: HeatLoad Template

Floor Area 8565 Sqft

Meeting Room People 12 6

Systems 142 8

Lights on Floor 125 20

Plotters 3 3000

Printers 2 1600

Paper Scrap 1 300

refrigerator 1 180

Ovan 1 600

Coffee Machine 1 200

Water Filter 1 700

50

40

28

Page 47: HeatLoad Template

12

Page 48: HeatLoad Template

9 Pantry

3 Plotter

10862.65

6677.24

127 13970

12 300

22400 Misc

145 15950 T5500

T490

Optiflex

100 160 16000

40 225 9000

6580

Page 49: HeatLoad Template
Page 50: HeatLoad Template

1000

12400

4620

9750