JCM_ID_F_PM_ver01.0

JCM Proposed Methodology Form
Cover sheet of the Proposed Methodology Form
Form for submitting the proposed methodology
Host Country

The Republic of Indonesia

Name of the methodology proponents DENSO CORPORATION
submitting this form
Sectoral scope(s) to which the Proposed 1. Energy industries (renewable – / non-renewable
Methodology applies

sources)
3. Energy demand

Title of the proposed methodology, and Installation of gas engine cogeneration systemversion number

with absorption chiller to supply electricity,
heating energy and cooling energy, Version 01.0

List of documents to be attached to this form

The attached draft JCM-PDD:(please check):

Additional information

Date of completion

01/03/2020

History of the proposed methodology
Version01.0

Date01/03/2020

Contents revisedFirst Edition1

JCM_ID_F_PM_ver01.0

A. Title of the methodology

Installation of gas engine cogeneration system with absorption chiller to supply electricity,
heating energy and cooling energy, Version 01.0

B. Terms and definitions

Terms
Cogeneration System (CGS)Definitions
A system that consists of power generator(s) and heatgenerating equipment (e.g. heat recovery steam generator,
exhaust heat exchanger, etc.) thatsupplies both electricity andheating energy, recovering waste heat exhausted from thepower generator(s). The power generator(s) in thismethodology is a gas engine(s).

Absorption chiller

Refrigerating machine using heat source such as heatingenergy generated by fuel combustion and/or waste heat in theform of hot water, steam or exhaust gas, refrigerant (eg.
water) and absorption solution (eg. Lithium bromide,ammonia) to generate chilled water or other chilled liquids byabsorption refrigeration cycle.

Recipient Facility

A cluster of buildings and/or plants (or building/plant itself)
to which electricity and heating energy generated by CGS aresupplied.

Boiler Efficiency

Net quantity of heat generated per quantity of energy
contained in fuel fired in the boiler.

Cooling capacity

Capability of individual chiller to remove heat. In thismethodology, “cooling capacity” is used to represent a
cooling capacity per a single chiller unit and not for a systemwith multiple chiller units.

C. Summary of the methodology

Items
GHG

emission

Summary
reduction Electricity and heating energy generated by a CGS installed in2

JCM_ID_F_PM_ver01.0

measuresa project site substitute all or part of grid and/or captive
electricity as well as heating energy. Absorption chiller utilizing
heating energy generated by a CGS is also introduced to saveenergy for cooling energy demand. Installation of CGS andabsorption chiller leads to efficient energy use of recipientfacility(ies) and in turn GHG emission reductions.

Calculationofemissionsreference [Reference emissions for CGS]
Reference emissions are CO2 emissions from the use of grid
and/or captive electricity and heating energy (e.g. steam and hot
water) generated by a reference boiler, which are calculatedwith the amount of electricity consumed by the recipientfacility(ies) which is generated by the CGS, the amount ofheating energy consumed by the recipient facility(ies) which is
generated by the CGS, CO2 emission factors for consumed
electricity in the recipient facility(ies), reference boiler
efficiency and CO2 emission factor for fossil fuel consumed by
the reference boiler.
[Reference emissions for absorption chiller]
Reference emissions are GHG emissions from using reference
chiller(s) which is determined as centrifugal chiller in thismethodology. Reference emissions are calculated with coolingenergy of project chiller(s), COP of reference chiller, and CO2
emission factor for electricity consumed.
GHG emissions from using chilled water pump, cooling water
pump and cooling tower are excluded from calculation sincethose pumps exist in both reference and project chiller systemand they can cancel each other out.

Calculation
emissionsofproject [Project emissions from CGS]
Project emissions are CO2 emissions from the use of CGS,
which are calculated with the amount of gas fuel consumed by
the CGS, net calorific value of gas fuel consumed by the CGS,
and CO2 emission factor for gas fuel consumed by the CGS.
[Project emissions from absorption chiller]
Project emissions are GHG emissions from using projectchiller(s), which are the sum of emissions from electricity3

JCM_ID_F_PM_ver01.0

consumption and fossil fuel consumption. GHG emissions fromelectricity consumption are calculated with electricity
consumption of pumps absorbing solution and refrigerant built
in the project chiller(s) and CO2 emission factor for electricity
consumed.
GHG emissions from fossil fuel consumption, whereapplicable, are calculated with fuel consumption of projectchiller(s) and CO2 emission factor for fuel consumed.
GHG emissions from using chilled water pump, cooling water
pump and cooling tower are excluded from calculation sincethose pumps exist in both reference and project chiller systemand they can be canceled each other out.
Monitoring parameters Electricity consumption by the recipient facility(ies) whichis generated by the CGS
 Heating energy consumption by the recipient facility(ies)which is generated by the CGS Cooling energy generated by the project absorption chiller
 Gas fuel consumption by the CGS Electricity consumption by the project absorption chiller
 Gas fuel consumption by the project absorption chiller,
where applicable The amount of fuel consumed and/or the amount ofelectricity generated by captive power, where applicable

D. Eligibility criteria

This methodology is applicable to projects that satisfy all of the following criteria.
Criterion 1

A CGS, whose electricity is generated by a gas engine(s), with absorption
chiller(s) utilizing waste heat from CGS is installed and supplies electricity andheating energy (e.g. steam, hot water and chilled water) to recipient facility(ies).

Criterion 2

Electricity and heating energy, each of which is generated in separate systems, is
supplied to and consumed by recipient facility(ies) before the installation of a
project CGS.

Criterion 3

In the case of replacing the existing chiller with the project chiller, a plan forprevention of releasing refrigerant used in the existing chiller to the air (e.g. reuse of the equipment) is prepared. Execution of this plan is checked at the timeof verification, in order to confirm that refrigerant used for the existing one

4

JCM_ID_F_PM_ver01.0

replaced by the project is prevented from being released to the air.
In the case that the existing chiller is NOT replaced with the project chiller, thiscriterion is not applied.

E. Emission Sources and GHG types

Reference emissions
Emission sources

GHG types

Electricity consumption in recipient facility(ies)

CO2

Fossil fuel consumption for production of heating energy consumed in CO2
recipient facility(ies)Electricity consumption by reference chiller

CO2

Project emissions
Emission sources

GHG types

Gas fuel consumption by CGS

CO2Electricity consumption by project chiller

CO2

Gas fuel consumption by project chiller

CO2

F. Establishment and calculation of reference emissions

F.1. Establishment of reference emissions
The following two measures are taken into consideration to ensure the net emission reductionsin this methodology.
[Reference boiler efficiency for the CGS]
Reference emissions are calculated with the amount of electricity generated by the CGS andconsumed by the recipient facility(ies), the amount of heating energy generated by the CGS
and consumed by the recipient facility(ies), reference boiler efficiency, CO2 emission factors
for consumed electricity in the recipient facility(ies) and fossil fuel consumed by the reference
boiler.
A default value for the reference boiler efficiency is conservatively set to 89 [%] taking thehighest value among those products sold in Indonesia, so as to ensure net emission reductions.
[Reference COP for the absorption chiller]

5

JCM_ID_F_PM_ver01.0

Reference emissions are calculated with cooling energy of project chiller(s), COP of reference
chiller, and CO2 emission factor for electricity consumed.
GHG emissions from using chilled water pump, cooling water pump and cooling tower are
excluded from calculation since those pumps exist in both reference and project chiller systemand they can cancel each other out.
The COP of reference chiller, which is centrifugal chiller, is conservatively set as a default
value in the following manner to ensure the net emission reductions.
1. The COP value tends to increase as the cooling capacity becomes larger.
2. The reference COP value varies by its cooling capacity.
3. The maximum values of COP in each cooling capacity range set for this methodology aredefined as COPRE,j as described in Section I.
F.2. Calculation of reference emissions

ࡾࡱ࢖

=
=

෍ ࡾࡱࢋ࢒ࢋࢉ,࢏,࢖ + ෍ ࡾࡱࢎࢋࢇ࢚,࢏,࢖ + ෍ ࡾࡱࢉࢎ࢏࢒࢒ࢋ࢘,࢐,࢖࢏࢏࢐෍൫ࡱ࡯࢏,࢖ × ࡱࡲࢋ࢒ࢋࢉ,࢏ ൯ + ෍ ࡴ࡯࢏,࢖ ×
࢏

࢏

૚૙૙
× ࡱࡲࢌ࢛ࢋ࢒,ࡾࡱࣁࡾࡱ࡯࢖࢐,࢐,࢖+ ෍ቆ× ࡱࡲࢋ࢒ࢋࢉ,࢐ ቇ࡯ࡻࡼࡾࡱ,࢐
࢐

Where
ܴ‫ܧ‬௣

ܴ‫ܧ‬௘௟௘௖,௜,௣ܴ‫ܧ‬௛௘௔௧,௜,௣ܴ‫ܧ‬௖௛௜௟௟௘௥,௝,௣

: Reference emissions during the period p [tCO2/p]: Reference emissions for electricity consumed by the recipient facility iwhich is generated by the CGS during the period p [tCO2/p]: Reference emissions for heating energy consumed by the recipient facility iwhich is generated by the CGS during the period p [tCO2/p]: Reference emissions by reference chiller j during the period p [tCO2/p]‫ܥܧ‬௜,௣

: Electricity consumption by the recipient facility i which is generated by the‫ܨܧ‬௘௟௘௖,௜

: CO2 emission factor for consumed electricity in the recipient facility i

CGS during the period p [MWh/p][tCO2/MWh]‫ܥܪ‬௜,௣

: Heating energy consumption by the recipient facility i which is generatedߟோா: Reference boiler efficiency [%]‫ܨܧ‬௙௨௘௟,ோா

by the CGS during the period p [GJ/p]*1: CO2 emission factor for fossil fuel consumed by the reference boiler

6

JCM_ID_F_PM_ver01.0[tCO2/GJ]‫ܥ‬௉௃,௝,௣‫ܱܲܥ‬ோா,௝: Cooling energy generated by the project absorption chiller j during theperiod p [MWh/p]: COP of reference chiller j [dimensionless]‫ܨܧ‬௘௟௘௖,௝

: CO2 emission factor for consumed electricity by the project absorption݅: Identification number of the recipient facility to which electricity andj: Identification number of the project absorption chiller

chiller j [tCO2/MWh]heating energy generated by the CGS is supplied*1: Amount of heating energy generated by the CGS and consumed by the project absorption
chiller is not included in ‫ܥܪ‬௜,௣

G. Calculation of project emissions

ࡼࡱ࢖

Where

=

ࡼࡱࡼࡶ,࡯ࡳࡿ,࢖ + ࡼࡱࡼࡶ,ࢉࢎ࢏࢒࢒ࢋ࢘,࢖

ࡼࡱࡼࡶ,࡯ࡳࡿ,࢖

=ࡲ࡯ࡼࡶ,࡯ࡳࡿ,࢖ × ࡺ࡯ࢂࢌ࢛ࢋ࢒,࡯ࡳࡿ × ࡱࡲࢌ࢛ࢋ࢒,࡯ࡳࡿ

ࡼࡱࡼࡶ,ࢉࢎ࢏࢒࢒ࢋ࢘,࢖=෍൫ࡱ࡯ࡼࡶ,࡯ࡸ,࢐,࢖ × ࡱࡲࢋ࢒ࢋࢉ,࢐ ൯࢐+ ෍൫ࡲ࡯ࡼࡶ,࡯ࡸ,࢐,࢖ × ࡺ࡯ࢂࢌ࢛ࢋ࢒,࡯ࡸ,࢐ × ૚, ૙૙૙ି૚
࢐× ࡱࡲࢌ࢛ࢋ࢒,࡯ࡸ,࢐ ൯

Where
ܲ‫ܧ‬௣

ܲ‫ܧ‬௉௃,஼ீௌ,௣ܲ‫ܧ‬௉௃,௖௛௜௟௟௘௥,௣‫ܥܨ‬௉௃,஼ீௌ,௣ܰ‫ܸܥ‬௙௨௘௟,஼ீௌ‫ܨܧ‬௙௨௘௟,஼ீௌ‫ܥܧ‬௉௃,஼௅,௝,௣

: Project emissions during the period p [tCO2/p]: Project emissions from the CGS during the period p [tCO2/p]: Project emissions from project absorption chiller during the period p[tCO2/p]: Gas fuel consumption by the CGS during the period p [mass or volume/p]: Net calorific value of gas fuel consumed by the CGS [GJ/mass or volume]: CO2 emission factor for gas fuel consumed by the CGS [tCO2/GJ]: Electricity consumption by project absorption chiller j during the period p7

JCM_ID_F_PM_ver01.0[MWh/p]‫ܨܧ‬௘௟௘௖,௝‫ܥܨ‬௉௃,஼௅,௝,௣ܰ‫ܸܥ‬௙௨௘௟,஼௅,௝

: CO2 emission factor for electricity consumed by the project absorption
chiller j [tCO2/MWh]: Gas fuel consumption by project absorption chiller j during the period p[Nm3/p]: Net calorific value of gas fuel consumed by project absorption chiller j[MJ/Nm3]‫ܨܧ‬௙௨௘௟,஼௅,௝

: CO2 emission factor for gas fuel consumed by project absorption chiller jj: Identification number of the project absorption chiller[tCO2/GJ]

H. Calculation of emissions reductionsࡱࡾ࢖=ࡾࡱ࢖ − ࡼࡱ࢖

Where
‫ܴܧ‬௣
ܴ‫ܧ‬௣

ܲ‫ܧ‬௣

I.

: Emission reductions during the period p [tCO2/p]: Reference emissions during the period p [tCO2/p]: Project emissions during the period p [tCO2/p]

Data and parameters fixed ex ante

The source of each data and parameter fixed ex ante is listed as below.
Parameter‫ܨܧ‬௘௟௘௖,௜Description of data

SourceCO2 emission factor for consumed electricity in the recipient [Grid electricity]
facility i [tCO2/MWh]

The most recent
value available atWhen the recipient facility consumes only grid electricity or the time ofcaptive electricity, the project participant applies the CO2 validation isemission factor respectively.

applied and fixed
for the8

JCM_ID_F_PM_ver01.0

When both grid electricity and captive electricity may be monitoring
consumed in the recipient facility, the project participant applies period thereafter.
the CO2 emission factor with lower value.

The data issourced from

[CO2 emission factor]“Emission

For grid electricity: The most recent value available from the

Factors ofsource stated in this table at the time of validation

Electricity
Interconnection

For captive electricity including cogeneration system, it isSystems”,

determined based on the following options:

National
Committee ona) Calculated from its power generation efficiency (ߟ௖௔௣,௜ [%])

Clean

obtained from manufacturer’s specification

Development

The power generation efficiency based on lower heating value

Mechanism(LHV) of the captive power generation system from the(Indonesian DNA

manufacturer’s specification is applied;

for CDM), based‫ܨܧ‬௘௟௘௖,௜ = 3.6 ×100
× ‫ܨܧ‬௙௨௘௟,௖௔௣,௜
ߟ௖௔௣,௜

on data obtained
by Directorate
General ofb) Calculated from measured data

Electricity,

The power generation efficiency calculated from monitored data

Ministry ofof the amount of fuel input for power generation (‫ܥܨ‬௖௔௣,௜,௣ ) and

Energy andthe amount of electricity generated (‫ܩܧ‬௖௔௣,௜,௣ ) during theMineralmonitoring period p is applied. The measurement is conducted

Resources,

with the monitoring equipment to which calibration certificate isIndonesia, unlessissued by an entity accredited under national/international

otherwise

standards;

instructed by the‫ܨܧ‬௘௟௘௖,௜ = ‫ܥܨ‬௖௔௣,௜,௣ × ܰ‫ܸܥ‬௙௨௘௟,௖௔௣,௜ × ‫ܨܧ‬௙௨௘௟,௖௔௣,௜ ×

Where:

1

Joint Committee.

‫ܩܧ‬௖௔௣,௜,௣ܰ‫ܸܥ‬௙௨௘௟,௖௔௣,௜ : Net calorific value of the fuel consumed by the [Captive

captive power generation system connected to the recipient electricity]
facility i [GJ/mass or volume]

For the option a)

Note:Specification of

In case the captive electricity generation system connected to thethe captive powerrecipient facility i meets all of the following conditions, thegeneration

9JCM_ID_F_PM_ver01.0

value in the following table may be applied to ‫ܨܧ‬௘௟௘௖,௜

depending on the consumed fuel type.

system connectedto the recipientfacility i,

The system is non-renewable generation systemprovided by theElectricity generation capacity of the system is less than or

manufacturer

equal to 15 MW(ߟ௖௔௣,௜ [%]).

CO2 emission

fuel type‫ܨܧ‬௘௟௘௖,௜

Dieselfuel

Natural gas

0.8 *10.46 *2

factor of the fuelconsumed by thecaptive power
generation*1 The most recent value at the time of validation is applied.

system connected*2 The value is calculated with the equation in the option a) above. to the recipient
The lower value of default effective CO2 emission factor for facility inatural gas (0.0543 tCO2/GJ), and the most efficient value of (‫ܨܧ‬௙௨௘௟,௖௔௣,௜

default efficiency for off-grid gas turbine systems (42%) are [tCO2/GJ]) inapplied.

order ofpreference:
1)

valuesprovided by thefuel supplier;
2)

measurement

by

the

project

participants;
3)

regional

nationalordefault

values;
4) IPCC default
valuesprovidedin table 1.4 of
Ch.1

Vol.2

2006

of

IPCC

Guidelineson

National

GHG

Inventories.
Lower value isapplied.

10

JCM_ID_F_PM_ver01.0

For the option b)
Generated

andsupplied
electricity by thecaptivepower

generation system
connected to therecipient facility i‫ܩܧ‬௖௔௣,௜,௣

([MWh/p]).
Fuelamountconsumed by thecaptivepower

generation system
connected to therecipient facility i( ‫ܥܨ‬௖௔௣,௜,௣ [massor volume/p]).
Net

calorificvalue(ܰ‫ܸܥ‬௙௨௘௟,௖௔௣,௜

[GJ/massorvolume]) and CO2
emission factor of
the

fuel
‫ܨܧ‬௙௨௘௟,௖௔௣,௜

([tCO2/GJ])

in

order

of

preference:
1)

valuesprovided by thefuel supplier;
2)

measurement

by

the

project

participants;
3)

11

regionalorJCM_ID_F_PM_ver01.0

national

default

values;
4) IPCC default
valuesprovidedin tables 1.2 and1.4 of Ch.1 Vol.2
of

2006

IPCC

Guidelineson

National

GHG

Inventories.
Lower value isapplied.
[Captive
electricity withdiesel fuel]CDM approved
small scale
methodology:
AMS-I.A.
[Captive
electricity withnatural gas]
2006 IPCC
Guidelines on
National GHG
Inventories forthe source of EF
of natural gas.
CDM
Methodological
tool"Determining thebaseline
efficiency ofthermal or12

JCM_ID_F_PM_ver01.0

electric energy
generation
systemsversion02.0" forthe default
efficiency for offgrid power
plants.
ߟோா

Reference boiler efficiency

Value derived
from the result of

Default value is set to 89 [%].

survey. The
default value, 89[%], should be
revised if
necessary.

‫ܨܧ‬௙௨௘௟,ோா

CO2 emission factor for fossil fuel consumed by the reference In the order ofboiler [tCO2/GJ]

preference:a) values

CO2 emission factor of natural gas is applied in thisprovided bymethodology in a conservative manner.

fuel supplier;b) measurementby the project
participants;c) regional or
national
default
values; ord)IPCC
default
valuesprovided intable 1.4 of
Ch.1 Vol.2
of 2006
IPCC
Guidelines
on National13

JCM_ID_F_PM_ver01.0

GHG
Inventories.
Lower
value isapplied.

‫ܱܲܥ‬ோா,௝

COP of reference chiller jSpecifications ofproject chiller j

The COP of the reference chiller j is selected from the default

prepared for the

COP value in the following table in line with cooling capacity of

quotation or

the project chiller j. (“x” in the table represents cooling capacity

factory

per unit.)

acceptance test
data by[Default COP values of reference chillers]manufacturer.

Cooling
capacity
per unit(USRt)

300≤x≤350

350<x≤550

550<x≤750

750<x≤1,300

COPRE,i

5.46

5.69

5.90

6.03

The default COP
values arederived from theresult of survey
on COP ofchillers frommanufacturersthat have highmarket share. The
survey should
prove the use ofclear
methodology.
The default COP
values should be
revised if
necessary fromsurvey result
which isconducted by JCor project
participants.

ܰ‫ܸܥ‬௙௨௘௟,஼ீௌ

Net calorific value of gas fuel consumed by the CGS [GJ/mass

14

In the order ofJCM_ID_F_PM_ver01.0

or volume]

preference:a) values
provided byfuel supplier;b) measurementby the project
participants;c) regional or
national
default
values; ord) IPCC default

valuesprovided intable 1.2 of
Ch.1 Vol.2 of2006 IPCC
Guidelines on
National
GHG
Inventories.
Upper value
is applied.
‫ܨܧ‬௙௨௘௟,஼ீௌ

CO2 emission factor for gas fuel consumed by the CGS

In order of[tCO2/GJ]

preference:a) values
provided byfuel supplier;b) measurementby the project
participants;c) regional or
national
default
values; ord) IPCC default

values15

JCM_ID_F_PM_ver01.0

provided intable 1.4 of
Ch.1 Vol.2 of2006 IPCC
Guidelines on
National
GHG
Inventories.
Upper value
is applied.
‫ܨܧ‬௘௟௘௖,௝

CO2 emission factor for consumed electricity by the project [Grid electricity]
absorption chiller j [tCO2/MWh]

The most recent
value available atWhen the absorption chiller consumes only grid electricity or the time ofcaptive electricity, the project participant applies the CO2 validation isemission factor respectively.

applied and fixed
for theWhen both grid electricity and captive electricity may be monitoring
consumed in the absorption chiller, the project participant applies period thereafter.
the CO2 emission factor with lower value.

The data issourced from

[CO2 emission factor]“Emission

For grid electricity: The most recent value available from the

Factors ofsource stated in this table at the time of validation

Electricity
Interconnection

For captive electricity including cogeneration system, it isSystems”,

determined based on the following options:

National
Committee ona) Calculated from its power generation efficiency (ߟ௖௔௣,௝ [%])

Clean

obtained from manufacturer’s specification

Development

The power generation efficiency based on lower heating value

Mechanism(LHV) of the captive power generation system from the(Indonesian DNA

manufacturer’s specification is applied;

for CDM), based‫ܨܧ‬௘௟௘௖,௝ = 3.6 ×100
× ‫ܨܧ‬௙௨௘௟,௖௔௣,௝
ߟ௖௔௣,௝b) Calculated from measured data

16

on data obtained
by Directorate
General of
Electricity,

JCM_ID_F_PM_ver01.0

The power generation efficiency calculated from monitored data

Ministry ofof the amount of fuel input for power generation (‫ܥܨ‬௖௔௣,௝,௣ ) and

Energy andthe amount of electricity generated (‫ܩܧ‬௖௔௣,௝,௣ ) during theMineralmonitoring period p is applied. The measurement is conducted

Resources,

with the monitoring equipment to which calibration certificate isIndonesia, unlessissued by an entity accredited under national/international

otherwise

standards;

instructed by the‫ܨܧ‬௘௟௘௖,௝ = ‫ܥܨ‬௖௔௣,௝,௣ × ܰ‫ܸܥ‬௙௨௘௟,௖௔௣,௝ × ‫ܨܧ‬௙௨௘௟,௖௔௣,௝ ×

Where:

1

Joint Committee.

‫ܩܧ‬௖௔௣,௝,௣ܰ‫ܸܥ‬௙௨௘௟,௖௔௣,௝ : Net calorific value of the fuel consumed by the [Captive

captive power generation system connected to the absorption electricity]chiller j [GJ/mass or volume]

For the option a)

Note:Specification of

In case the captive electricity generation system connected to thethe captive power

absorption chiller j meets all of the following conditions, thegeneration

value in the following table may be applied to ‫ܨܧ‬௘௟௘௖,௝

system connected

depending on the consumed fuel type.

to the absorption
chiller j, providedThe system is non-renewable generation systemby theElectricity generation capacity of the system is less than or

manufacturer

equal to 15 MW(ߟ௖௔௣,௝ [%]).

CO2 emission
fuel type‫ܨܧ‬௘௟௘௖,௜

Dieselfuel

Natural gas

0.8 *10.46 *2

factor of the fuelconsumed by thecaptive power
generation*1 The most recent value at the time of validation is applied.

system connected*2 The value is calculated with the equation in the option a) above. to the absorption
The lower value of default effective CO2 emission factor for chiller jnatural gas (0.0543 tCO2/GJ), and the most efficient value of (‫ܨܧ‬௙௨௘௟,௖௔௣,௝

default efficiency for off-grid gas turbine systems (42%) are [tCO2/GJ]) inapplied.

order ofpreference:
1)

valuesprovided by the17

JCM_ID_F_PM_ver01.0

fuel supplier;
2)

measurement

by

the

project

participants;
3)

regional

nationalordefault

values;
4) IPCC default
valuesprovidedin table 1.4 of
Ch.1

Vol.2

2006

of

IPCC

Guidelineson

National

GHG

Inventories.
Lower value isapplied.
For the option b)
Generated

andsupplied
electricity by thecaptivepower

generation system
connected to theabsorption chillerj(‫ܩܧ‬௖௔௣,௝,௣

[MWh/p]).
Fuelamountconsumed by thecaptivepower

generation system
connected to therecipient facility j( ‫ܥܨ‬௖௔௣,௝,௣ [massor volume/p]).
Net

18

calorific

JCM_ID_F_PM_ver01.0

value
(

ܰ‫ܸܥ‬௙௨௘௟,௖௔௣,௝

[GJ/massorvolume]) and CO2
emission factor of
the

fuel
‫ܨܧ‬௙௨௘௟,௖௔௣,௝

([tCO2/GJ])

in

order

of

preference:
1)

valuesprovided by thefuel supplier;
2)

measurement

by

the

project

participants;
3)

regional

nationalordefault

values;
4) IPCC default
valuesprovidedin tables 1.2 and1.4 of Ch.1 Vol.2
of

2006

IPCC

Guidelineson

National

GHG

Inventories.
Lower value isapplied.
[Captive
electricity withdiesel fuel]CDM approved
small scale
methodology:
AMS-I.A.

19

JCM_ID_F_PM_ver01.0[Captive
electricity withnatural gas]
2006 IPCC
Guidelines on
National GHG
Inventories forthe source of EF
of natural gas.
CDM
Methodological
tool"Determining thebaseline
efficiency ofthermal orelectric energy
generation
systemsversion02.0" forthe default
efficiency for offgrid power
plants.
ܰ‫ܸܥ‬௙௨௘௟,஼௅,௝

Net calorific value of gas fuel consumed by the project absorption In the order ofchiller j [GJ/mass or volume]

preference:a) values
providedbyfuel supplier;b) measurementby the project
participants;c) regionalornational
default values;or20

JCM_ID_F_PM_ver01.0d) IPCC default
valuesprovidedintable 1.2 of
Ch.1 Vol.2 of
2006

IPCC

Guidelines on
National
GHG
Inventories.
Upper value
is applied.
‫ܨܧ‬௙௨௘௟,‫ܮܥ‬,݆CO2 emission factor for gas fuel consumed by the project

In order ofabsorption chiller j [tCO2/GJ]

preference:a)valuesprovidedbyfuel supplier;b)measurementby the project
participants;c)regional or
national
default
values; ord)

IPCC default
valuesprovided intable 1.4 of
Ch.1 Vol.2 of2006 IPCC
Guidelines
on National
GHG
Inventories.
Upper value
is applied.

21