=== dc2020-12-0026-guidelines-pages-61.ppm ===
includes less than 25 hours per year of running time at the standby rating.

b) Prime Power Rating - Prime power rated generators shall be used in
applications where the user does not purchase power from a public utility.
The prime power rating is the maximum power available for an unlimited
number of hours per year in a variable load setting. It is not advisable that
the variable load exceed 70% of the average prime power rating during any
operational period of 250 hours. If the engine is running at 100% prime
power, yearly hours shall not exceed 500. Prime power is accessible for a
limited number of hours in non-variable load situations. Limited prime power
is intended for circumstances where power outages are expected, such as
a planned utility power reduction. Engines in generator sets may operate
up to 750 hours per year at power levels less than the maximum prime
power rating. In these situations, it is important to never exceed the prime
power rating.

c) Continuous Power Rating - Continuous power rating is used in
applications where supplying power is at a constant 100% load for an
unlimited number of hours each year. Continuous power rated units are
most widely used in applications where the power grid is unreachable or
unreliable. Such applications include mining, agriculture or military
operations.

For buildings with ten storeys or higher, an automatic transfer switch (ATS)
shall be installed to transfer the power source from the usual local power utility
to the emergency/back-up power source, after a short delay, during commercial
power interruptions.

The generator set’s fuel consumption at 100% rated capacity shall not go over
0.28 liters per kWh. Accordingly, every generator set shall be equipped with
fuel flow meter and electric power meter.

J. Metering for Energy Auditing

1.

Covered buildings shall have metering facilities capable of measuring voltage,
current, power factor, power quality, maximum demand and energy
consumption. In addition, it shall have provision for feeder metering facilities.

Where possible, a feeder circuit shall serve only a particular group of loads
sharing the same function for better monitoring and control. These loads can
be grouped as follows:

a) Lighting Load

b) Chiller

c) Air Handling Units, Unitary Air Conditioning Systems
d) Other Motor Loads (exhaust fan, pumps, etc.)

Energy meters and instrument transformers utilized for billing purposes shall
have an accuracy class rating of at least 0.5. Otherwise, such devices shall
have an accuracy class rating of at least 1.0.

In multiple tenant buildings, each tenant unit shall have a provision for
measuring the tenant's energy consumption. Power for common utilities such
as water pump, elevator, etc. shall also be metered.

In order to facilitate metering safely and quickly by qualified personnel, an
adequate working space in front of the electrical paneis and meters shall be
provided.

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9.4 Building Management System

A. Buildings are encouraged to install Building Management Systems (BMS) to have
centralized monitoring and control of the many individual systems within the
building, such as, but not limited, to the following:

HVAC system
CCTV system
Security system
Lighting system of common areas
Smoke and fire alarm system
Elevators system
Emergency power supply system
Alternative power supply system
Smart garden system

. Energy monitoring system

. Indoor air quality system

. Public address system

. Communication system

CONAABWN >

aw a
WhO

B. BMS with analytics and optimization software can realize significant energy
savings for a building.

C. BMS with internet connections shall be protected by a firewall to prevent hackers
from entering the system.

9.5 Smart Home System

A. Residential dwelling buildings, such as condominiums, are encouraged to employ
smart home technologies in every home unit, which shall be equipped with
sensors, devices and appliances that are connected to the Internet of Things (IoT)
and are able to be remotely monitored, controlled and accessed by the home
owner. Any or all of the following may be utilized towards this end:

Lighting Control System

Smart lamps/light bulbs

HVAC Control System

Home security such as CCTV, burglar alarm, etc.
Security access such as smart door locks

Home energy monitor

Smart appliances such as refrigerators, laundry machines, coffee maker,
TV, radio, etc.

Smart devices such as smoke detector, etc.

. Smart garden irrigation

10. Other similar systems

Co NOOaARWN>

B. Smart home systems shall be protected from possible hackers through the use of
hardware and/or software solutions.

9.6 Regular Inspection, Maintenance, and Audit

A. Buildings shall conduct annua! inspection and maintenance of its electrical
systems, such as thermal scanning of the transformers, panel boards and
conductors to check for hot spots, which are sources of losses in a distribution
system and, at the same time, possible causes of electrical fires.

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9.7

10.1

B.

C.

Buildings, at the onset of operation, shall monitor and record their monthly energy
consumption in order to establish a baseline value.

Covered buildings shall conduct regular energy audit of its facilities.

Required Design Documentation

The following documents shall be required for the building permit application:

A.

Electrical plan showing the power supply layout and single line diagrams of the
building’s connection to the local power utility supply, the internal distribution
system, transformer, protection, metering, and back-up (e.g., emergency gensets)
and alternative power systems (e.g., RE power supply system), containing, among
others, the load schedule, calculations, technical specifications and other details
required by the latest edition of the PEC Part 1.

The electrical plan shall show the UPS supplied circuits, particularly for emergency
lighting.

Design drawings, calculations, and technical specifications of the lightning
protection system and surge suppression/protection system.

. Brochures and technical data sheets of main transformer, protection, metering,

UPS, emergency generator sets, lightning protection system, and surge
suppression system.

. Building plans and specifications shall include, but are not limited to, the following:

1. The type and location of the EVSE

2. The design of the raceway(s)

3. Electrical calculations to substantiate the design of the EV supply system,
to include the rating of equipment and any on-site distribution transformers
to ensure sufficient capacity to simultaneously charge all required EVs at
full-rated amperage.

Section X. Renewable Energy (RE) Systems and Equipment

RE Power Supply Systems

A.

Buildings shall install RE power supply systems within their facility, whenever it is
technically feasible, either at their rooftops, fagades, grounds and/or roofed parking
spaces to reduce demand, energy costs, and, indirectly, reduce greenhouse gas
(GHG) emissions.

RE power supply system capacity can be sized to either supply partially the energy
requirements of the facility (own use), or supply entirely the energy requirements
of the facility (Net Zero Energy Building) or, aside from satisfying its own power
requirements, sell the excess energy to the local power utility (Net Metering, which,
presently, is up to 100 kW only but may be raised by ERC in the future).

RE power supply systems shail be designed and installed in accordance with the
relevant provisions of the latest editions of the Philippine Electrical Code Part 1,
the Philippine Distribution Code, applicable rules and regulations issued by ERC
and the Office of the Building Official and by the rules and interconnection
procedures established by the local distribution utility under which franchise the

Page 63 of 74
=== dc2020-12-0026-guidelines-pages-64.ppm ===
10.2

building is covered.

D. Buildings are encouraged to use systems or equipment that utilizes RE, such as
solar photovoltaic (PV) and/or wind power supply systems, solar water heaters,
solar air conditioners, solar powered lighting systems, and the like, whichever is
applicable, to reduce demand for commercial power.

E. Solar PV power supply systems shall employ either grid tie inverters or hybrid
inverters, equipped with active harmonic filters and surge protection. Grid tie
inverters need the grid voltage to synchronize in order to start generating power.
Hence, when there is a commercial power interruption, the solar PV power supply
system also shuts down for safety reasons. Therefore, grid tie inverters are not
able to do islanding operation. On the other hand, hybrid solar inverters are more
flexible and can support not only commercial power but multiple power sources,
such as battery system, gasoline/diesel generator sets, etc. and, therefore, able to
operate on island mode. However, hybrid inverters are more costly than grid tie
inverters. In places where the commercial/utility power supply is unreliable (i.e.,
frequent and/or long power interruptions), hybrid inverters shall be used to achieve
resiliency.

F. RE power supply systems shall be equipped with at least two (2) meters; one
measuring, among others, the quantity of RE power being supplied to the building,
and the other measuring the quantity of commercial power (i.e., from the local
electric utility) being supplied to the building.

G. In evaluating the economic feasibility of RE power supply systems and equipment,
Life Cycle Cost or Cost of Ownership shall be considered and not the initial cost
only.

H. Buildings, being end users of electricity, are encouraged to avail of the Green
Energy Option Program (GEOP) and demand from their local electric
utility/cooperative or Retail Electricity Supplier (RES) that the energy to be supplied
to the building shall be from RE sources to avail of the incentives under R.A. 9513
(Renewable Energy Act).

Annual Energy Requirements from RE

A. Covered buildings shall source, initially, a minimum of one percent (1%) of their
projected annual energy requirements (i.e., same level as the RPS) to reduce
demand for commercial power through the installation of any or a combination or
all of the following:

RE Power Supply Systems

Solar Water Heaters

Solar Cooling Systems

Solar-Powered Lighting Systems

Any other similar system or equipment

AWN >

B. Availing of the GEOP by a Building shall also satisfy the above stated requirement
(i.e., in A.)

C. The above requirement (in A.) may be increased by the DOE from time to time, in
accordance with its mandate.

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10.3

Required Design Documentation
The following documents shall be required for the building permit application:

A. Electrical plan showing the power supply layout and single line diagram of the
building’s connection to the local power utility supply, the internal distribution
system, protection, metering, and back-up (e.g., emergency gensets) and
alternative power systems (e.g., RE power supply system), showing the technical
specifications of the protection, metering, emergency generator sets, and RE
power supply system (whichever is applicable)

B. Brochures and technical data sheets of the main components of the RE power
supply system (if applicable)

C. Electricity power supply contract.

APPENDICES
Appendix A: Obligations of Building Owners

Integrate an energy management system policy into the business operation based on
iSO 50001 or any similar framework;

Set up programs to develop and design measures that promote energy efficiency,
conservation, and efficiency that may include installation and/or utilization of
renewable energy technologies or sources;

. Set up annual targets, plans, and methods of measurements and verification for the

implementation of energy efficiency and conservation projects;
Keep records on monthly energy consumption data and other energy related data;

Improve average specific energy consumption in accordance with the annual reduction
targets to be established by the DOE in the NEECP;

Submit an annual ECCR to the DOE by the 15th of April every year;

. Conduct an energy audit once every three (3) years, by engaging either a certified

energy auditor or an accredited ESCO, and submit an energy audit report to the DOE
upon completion of the energy audit;

. Employ a CECO for Type 1 establishments, and a CEM for Type 2 designated

establishments; provided, that the CECO and the CEM may be chosen from within the
organization or hired through external recruitment; and

Duly notify the DOE on the appointment or separation from the service of their

respective CECOs or CEMs within ten (10) working days from the effective date of
these personnel actions.

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=== dc2020-12-0026-guidelines-pages-66.ppm ===
Sample Calculations for

Overall Thermal Transfer Value (OTTV)

Appendix B

VE LO ME Yy 105 Wore HaEE, )

Source: EU -ASEP, 2020

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Appendix C: Thermal Conductivities of
Building Materials

i co Tt
Building Material | Percentage (%) Building Material Percentage (%)
+ r T
Brick {common} ; Ground Cover
Light red i 55 Asphalt pavement q3
Red | 68 Grass. green after rain G7
Marbic Sand, in wnaay 67,89
ar ! and, dry i 82
White i 48 Sand. wet cH
Dark i 66 Sand, white powdered | 45
Polished i 50 60 Water | 9a
i {  Vegetabie fields and shrubs. wiltrd 30
Metals i Common vegetable fields and shrubs 72°96
sic as Sicracrgae 78 80
Galvanized iron, new i 64 . “ee 30
Galvanized tron, dirty | a2
Copper. polished i 18 roe nee nena as anemia ess nan aa nas amines ~
Copper. tarnished . ce tye . .
pper. fan's 4 Where specific material is nol mentioned above, an approximate value may
Lead sheet, atd i 3 be assioned with the use af the following color guide:
i 79 & iB g
t
Zinc, polished i ec oe ie vise neuen yt vp ve eneeee a
*° [ Color (%) Absorption
Paints ‘ae . 4 _ orp -
White emulsion \ 12.20
White paint. 4.3 mm on aluminum i 20 White. smooth surfaces 25.40
White enamel an iran H > Gray to dark gray. rant green 40 50
i 25-45 2
Aturminum oil base pat i 45 Green to dark green. red, brown i 50 70
Gay paint Hl 75 Dark brown, dlue 70 80
Rod! olf base paint ! 74 Dark tuo, black 80 90
\ ' ok na
Black gloss paint : Ya) Peweectly Black wo
Green al base paint | 50 Fa wate prwidored 45
c ors aoe, iB 5
Black paint, 4.3 mm on ahininurm a4 98 Water oa
Vegetable fields and shrubs, wited 70
Roofing materials i | Commen vegetable tieits and shrubs ' 72.76
Tile clay. red 64 i Graund, dry and plowed 75 BO
Tile | 65 91 Bare meust ground 90
i
Miscetlancaus i
Aluminum. polishod 1S Nodis Mil astesie ce rabbinic materia viel! br oamtted Goupphy aber ceatent frond
Concrete ! 60
Concrete. rough |
uy 6
Plastor white wall i ae
Wood i 60
Aluminum foi 15
i
A

ee nee |

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Appendix D: K-Value of Basic Materials

i Thermat
| Construction Materials Density (kam?) Conductivity
| (Wire
1

! asphalt. roofing 2240 1226
i bitumen 1.208
: back

) fa} common 1925 O72
ib} face 2085 1297
1 concrete 2400 saz
: 64 ores
| concrete, light weight G60 0.303
' N20 0.346
i 1280 0476
| cork board 144 0.642
i fiber board 264 0.052
i filer giass (sco glass wool and mineral

| wool)

+ glass shect 2012 1053
} glass wool. mat or guilt (dng 32 0.035
| gypsum plaster board B80 oro
. hard board

} ie standard 24 O21
i by mediuen 640 0423
| metals

| (a) aluminum atlay, typical 2672 2%

: tp copper. commercial R794 385

i fe) steel 7e8an ATG
mineral wool, felt 32-104 9.032.0.035
| plaster

| fa} gypsum 1246 O.370
| (2) perlite 66 O15
i c) sandécoment 7568 0533
, (a) vermiculite 640.960 O.202 0.303
| polystyrene, expanded 16 0.035
| polyurethane. foam 24 0.024
| pve flooring 1360 0713
i Sait loasely packed 1200 O375
) Stone. tic

| fa) sandstone £000 1.208
| IB} granite 2640 2027
Pie) marbletcrazze/coramic mosaic 2640) 12a8
| Tike. rao 1890 0.836
) timber

\ fa) across grain softwood 608 Q4i25
i iP} harchyooc Foz O135
i c) plywood S28 O36
Vormicuite. loase granules 80.12 0.065
! Woed chipboard SOC O144
| Woociwool slab $00 0.086
48C chat

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=== dc2020-12-0026-guidelines-pages-69.ppm ===
Appendix E: K-Value of Basic Materials

f —T
| Construction Materials Density (kg/m?)
{
| Asbestos cement shect 1488
Asbestes insulating board 720
asphalt, roofing 2240
bitumen
brick
la} dry (covered by plaster or uies
outside 760
| (bo) common brickwall (brickwall
| directly exposed to weather avtsicde} T6G
i
| concrete 2400
64
concrete. light weight OB
N20
: J28D
i cork board J44
| fiber board 26d
fiber glass (see glass wool and mireral
i week
| qlass sheet 2572
| glass wool matoar guilt (dry) 32
gypsum plaster board 880
nard board
: {a} standard 24
i (db) medium 640
+ metals 6272
S784
i Fea
! mineral wool, felt 32. 104
| plaster
fa) gypsum 12%6
(b} perlite 616
ic} sandicement 1568
i {dh vermiculite 640 960
i polystyrene, expanded 16
| polyurethane, foam 24
pve THooring 1360
Soul, jaosely packed 1200
Roce rte een atts aetiemnt ope seein eunn 4 we tas
Stone tile
{aj Sand stone 2000
{b) Granite en0
(c} Marbletterrazzoscoramic/mosaic 1R9O
Tile, roof
Timber
(a) Across grain softwood 608
(bo) Hardwood 702
{ch Plywood 528
Vermiculite, loose granules BOND
Wood chipboard BOO
Woodwool slab ADO
480

Thermal

Conductivity

O31?
6108
1.226
1298

O807
1154

C1442
O144
3.303
0.346
0.476
O04?
Q.052

1.053
G.O35
O70

0.276
O123
aii
385
476
G.035 0.032

o77G
O75
9.533
0.202 0.303
C035
0.024
O73
0.375

O125
O38
GI3E

0.065
O14

C086
10%

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Appendix F: Air Space Resista

Types of Air Space

Air space resistance (R.} for Walls
Vertical air space
{Heat flows horizontally)
{a} High Emissivity
(b) Low Emissivity

Air Space Resistancec, (R-) for Reof

Horizontal ar sloping air space
(Heat flaws downward}
fa} High Emissivity
tL} Horizontal air space
(.) Sloped air space 22.5°
iii} Sloped ar space 45°
(o) Low Emissivity
(i) Horizontal air space
(ii) Sloped air space 22.5"
{iii} Sloped ar space 45°

Attic Space Resistances (Rattic}
jap High Enussreity
fb) Low Emissivity

Notes:
Ordinarily, high emissivity is assumed for air spaces bounded by building materials of moderately
smooih surfaces. Low emissivity applies where one or both sides of the air space is bounded by a

Thermal Resistance

(M?—"CeW}

nces for Walls and Roofs

perenne er ne ee re cre natant nna tn +

0.160
0.606

ow74
oes |
D158

1423
1.095
0.768

Interpolation within the range of pitch angles from horizontal to 45° is permitted. For angle beyond 45°,
the value of 45° can be used; no extrapolation is needed.
Interpolation within the range of thickness from 5 mm to 100 mm is permitted. For air space less than
5 mm, extrapolation basing on Ra = 0 for zero thickness is allowed; otherwise R is assumed to be

zero. For air space greater than 100 mm, the Ra for 100 mm should be used, i.e. extrapolation is not

1.
teflective surface such as that of an aluminum foil.
2.
3.
permitted.
4.

in the case of air space in roof, reflective foil used should be installed within the reflective surface
facing downward as dust deposit will render an upward-facing surface ineffective after a while.

Appendix G: Surface Film Resistances

Thermal Resistance

Walls

Roots

Flat or sloped

Types of Air Space (m?~°C/W)
i
|
nside surface
. ween | on
Smooth finishes
a 9.30
! Reflective tinishes D04
Outside surface
Insicle surface . ore
ie ae sua | ons
‘5° sloped (smooth finishi
ped fame | 0.80
Flat [reflective finish} 035
45° sloped (reflective finish)
Qutside surface H O56

Note: Interpolation between angles of slope from horizontal to 45° is valid.

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Appendix H: Exhaust Air Energy Recovery Requirements

4

U-Value (Glass only}

Glass Type (Wim?—°C}

_ _ . Exposed | Sheitered |

| Flat glass 5.03 4.50
Single pane, clear

| Single pane, with low emittance

coating

| oe G60 5.68 4.54

© 0.40 51 3.97

/ © - 0.20 426 Biz

Insulating glass

i Double pane. clear

4.8 mm a space 3.69 3.29

| 6.4 mm ar space 3.46 3.2

i 12.5 mm air space 28 295

Double panc, with iow emittance

| coating

| e° 0.60 * ae

| e 0.40 ; 244

| e° 0.20

To account for outside or inside sashes/frames, the following correction factors shall be used:

Correction Factors
Inside : Outside

| Sheltered ' Exposed Sheltered

t

| Glass Type

| Exposed

Single pane
clear

} Lowe

| Double panc

| clear

; Lowe

{

Page 71 of 74

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Appendix |: Glass Performance Data

TO , ~ 7
Glass Type Clear-12 [Dark Green-12; Bronze-12 | Dark Blue-12 Glass Type Clear-40 i ark Green-10| Bronze-10 {Dark Biue-10|
— a 5 oo —T ee cence ete enema r ponent ne ete en nee een ee oo —
Cade FL DNFL {BFL DHL Code FL ONFL. BFL | DHFL ‘
{ Colar Clear Dark Green | Bronze Dark Bluc Color Clear 1 Dark Green Bronze | Bark Bluc
Thickness 12mm 12mm ; t2mm W2mm Thickness mm i 10 mn 1 mm i mm |
Substrate None None , None Nore Substrate Nance | None Nore} Nonc |
{ \
5 i - |
Visible Light, 84.50 5250 | 2210 | 36.00 Visible Light. %
| Transmittance 9.00 6.50 i 5.30 570 Transmittance 85.60 | 57.50 2790 | 4200 |
| Reflectance, out 9.00 650 i 530 5.70 Reflectance, out 910 | 6.80 540} 600 |
Reflectance, 1 i Reflectance, in a0 | 6.80 540 | 6.00 i
: | i
Solar Energy, t | Saiar Energy, “S { t |
Transouttance 72.00 45.50 2 23.00 20.70 Transmittance 7510 | 2070 28.90 | 250 |
Reftectance, out 790 5.30 ; 5.30 $20 Reflectance, aut B00 | 5.20 550 | 5.40
Refirctance, in 790 5.10 { 5.30 $20 Reflectance. in ROO | 5.20 550 | 5.40 {
|  Absomptance 2010 7940 | 7170 74.00 Absorptanee 690 | 74.06 6560 | 6810 |
j i : i
Shading Coctiicient 0.89 0.43 , O49 0.47 Shading Coctficient om | 0.48 0.54 | 0.52
U-value, Summer Wim2 °K S75 6.29 i 6.23 625 U value, Summer Wim? *K 57s] 632 626 | 6.28 !
U value, Winter Wim2 °K 6.7 617 / 0.43 647 U value, Winter Wim °K &27 | 6.26 626 | 626 |
Salar heal gain cocticent O77 0.37 ;  OAF | Oat Saiar beat gain cacfficient OF | 0.44 cr 045 i
Relative heat gain Wim? "kK | 603 326 » 358 346 Relative Heat gain Wim “K[ G20 | 349 38g | a7 i
i i
es oe _ cereale es courcenetee ce ba cgunececnenees pagent inet escent ibe gn oo a L som - ;
- T ame a ae arn nn ee an
Glass Type Monolithic Monolithic | Glass Type Clear | Dark Green-8! Bronze-8 | Dark Blue |
pe SE ERI SEE ER ER Ol oe eee 7 | eee
Code FL FL | | Cotte FL DNFL OFL DHEL
Color Cloar Cioas i 4 Color | Cheat Dark Geen {| Branzo | Dark Blue
Thickness sSmm 19mm ; | Thickness Bmm @mm ; 8mm Boimm
Substrate None None P| Substrate None None bo None Nore
Bot !
Visible Light, Po) Visible Light, % i
Transmittance Tv 83.10 8170 | | Transmittance 86.50 6290 ; 3530 4368.90
Reflectance, out RV 8.80 870 i 1 Reflectance. out 920 7.20 i 570 6.30
Reflectance. 1n RV 8.80 870 | | Reflectance. in 9.20 220 ; 572 | 630
Satar Eneray, % ; | Solar Energy, % |
Transmitlance TE 6840 62.90 { Transmittance 7790 2780 ' 36.30 | 33.80
Reflectance, out RE 740 7.20 i Refiectance, cut 1 8.20 5.40 ; 70 5.60
Reflectance, in RE 760 720 Reflrctanes. 4 i 820 5.460 i 570 5.60
Absorptance AE 24.40 23.90 Absamtance 13.90 66 70 ' $8.00 60.50
Poof Hy i
Shading Coefficient sc 0.85 0.81 | Shading Coeficiest + O94 O52 i 0.60 i 0.58
U-value, Summer Wand °K U 570 5.63 ! Uvaluic, Summer Wii °K 5381 6.34 1 6.27 629
U-valuc, Winter Wim2 °K UW 6.05 5.89 po | Mevalue, Weiter Wim2 °K 6.36 635 t  &35 6.35
Solar heat gain cocfficient SHGC O74 ava ii Solar heat gain cocticiwat 08 046 Hy 0.52 i O61
Relative heat gain Wind °K RHG SB2 $54 i i Relative beat gain Wim? *K 635 386 i 428 as
fof 4 |
tot
hoe . i I... - oe
Notes:
1. Above data is on monolithic substrate only.
2. Calculation of U-value, Relative Heat Gain based on ASHRAE condition (GSBDLGL)

Page 72 of 74

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Appendix J: Exhaust Air Recovery Requirements
Source: ASHRAE Standard 169-2013

Table G.3.6.1.2-1 bahaust Air Emory Hecewory Requirements
ter Ventiaton Systens Operating Less than 8000 Hours per Year

18 4B 400 5A NFR MR NA Ht HR h WR
CH VR ARC ME NR MR SA TOnRE
fab PACER {rey “SCR ARE Tat} Pins
Cn ESL OB JE TEST APY HT Sh MENT At
EA GN
rs BD to SUUt eed LSA! 1a Bre tat In}

NEL Me theg. erat

Yeble 6.9 6.1.2-2 banaust Air Eoorgy Hecowory Requirements
for Ventiiation Systenia Operitag Greater inan or Equal te 2000 Hours sar Year

wa HR KR + RR NR NH AK “a
CSOT SRE at HR Aa Ba) fee a
fh PADS a, dB. 2REn a0 ris 1x: a
446 AQ nA HAT A POS oO OM ah / FEE Bet an

WA Kory ee

Page 73 of 74

=== dc2020-12-0026-guidelines-pages-74.ppm ===
Appendix K: Philippine Stations and Climate Zones

Priippines (PHL

ELALSUN

CASA AN DE TRE

Cid, BPR

CATARDUANES RADAR

CATEALOGAM
CLARK AB
OLERE Beh EE
Dune |

DAGUEAN

Cava AIRPIIR FT

DUMAGLE Yb

GES SANTIS
ha

hon

INF ANT A
Lares

LE GASH
LUM EA A Re
MAaACTAN

Bi FRA RY

TAIL

aE

BUN?

KING AQCINOUIN TE Say

PUEATD PRINT ESA,

Loa

Sah JOSE
SARGLE YT PONT
SCIEKCE GARDEN
SuSE

TACIOEAN

TATA AB AR
TANABE AS

CAMBCARGA

OB TSAO
ac: Mie

Wg

wae

BET
at HEE

Had,

Bie Lay

EER
Si Bed adedt}
UnFaPS
FESS
OWFETS
and 2Sn
MESRAST
HAASE
CMe ey
O86 ES
TIRE
SHS TTG
EA SSS
AAS
Lear ane
JOSAH:
“PA
Mt? Fr

a8

1245
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