primjeri za - hrvatska gospodarska komora...primjeri za određivanje besplatne dodjele emisijskih...

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Primjeri za određivanje besplatne dodjele emisijskih jedinica Zagreb, 25.-29. ožujka 2019.

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  • Primjeri za određivanje besplatne dodjele emisijskih jedinicaZagreb, 25.-29. ožujka 2019.

  • Korekcija referentne vrijednosti – pripisane emisije

    𝑨𝒕𝒕𝒓𝑬𝒎 = 𝑫𝒊𝒓𝑬𝒎∗ + 𝑬𝒎𝑯,𝒊𝒎𝒑𝒐𝒓𝒕 − 𝑬𝒎𝑯,𝒆𝒙𝒑𝒐𝒓𝒕 + 𝑾𝑮𝒄𝒐𝒓𝒓,𝒊𝒎𝒑𝒐𝒓𝒕 − 𝑾𝑮𝒄𝒐𝒓𝒓,𝒆𝒙𝒑𝒐𝒓𝒕 + 𝑬𝒎𝒆𝒍,𝒆𝒙𝒄𝒉 − 𝑬𝒎𝒆𝒍,𝒑𝒓𝒐𝒅𝒖𝒄𝒆𝒅

    Pripisane emisije potpostrojena

    Direktno pripisane emisije su povezane s tokovima izvora, na način kao što su i

    tokovi izvora u planovima praćenja u skladu s MRR (osim topline i otpadnih plinova)

    Emisije koje se odnose na dodijeljenu uvezenu neto mjerljivu toplinu

    Emisije koje se odnose na dodijeljenu izvezenu neto mjerljivu toplinu

    Korekcija za uvezene otpadne plinove

    Korekcija za izvezene otpadne plinove

    Emisije koje se odnose na potrošnju

    izmjenjive struje

    Emisije iz

    proizvodnje

    el.energije

    2

  • Primjeri – boje oznaka

    3

    Tip strelice Opis

    Zelene strelice koriste se za tokove izvora iz planova praćenja u skladu s MRR (tokovi izvora iz plana praćenja)

    Sive strelice se koriste za gorivo koje izgara izvan granica postrojenja, tj. Nije pokriveno planom praćenja

    Crvene strelice koriste se za „interne tokove izvora” koji nisu pokriveni

    planom praćenja (npr. Jer je masena bilanca primijenjena za cijelo

    postrojenje)

    Tamno plave strelice koriste se za mjerljive tokove

    topline.

    Plave strelice koriste se za proizvode, npr. Proizvode s

    referntnom vrijednošću - BM.

    Crvene strelice koriste se za tok

    električne energije.

    Fuel

    Fuel

    Cinternal

    Heat

    Product

    Electricity

  • Link to templates

    4

    Attributed emissions

    Relevant section in the baseline data collection

    template

    Relevant section in theMMP Template

    Relevant examples in this sectionProduct

    BMFallback

    BMProduct

    BMFallback

    BMDirEm* (MP source streams) F.g G.c F.e.i G.c AllDirEm* (Internal source streams) F.i – F.e.ii – WG-1DirEm* (CO2 feedstock) F.j – F.e.iii – –

    EmH,import F.k G.1.f F.g G.1.fMH(all),

    WG-3,Elec-2

    EmH,export F.k G.4.e F.g G.4.e MH(all)

    WGcorr,import F.l G.4.d F.h G.4.d WG(all)

    WGcorr,export F.l – F.h – WG(all)

    Emel,exch F.c – F.c – Elec-1

    Emel,prod F.m – F.c – Elec-2Parameter: Fuel input F.h G.d F.f G.d AllParameter: Fuel input from waste gases(WG) F.k GParameter: Heatproduced – GParameter: Heat frompulp F.k GParameter: Heat from nitricacid F.kParameter: Waste gasesproduced F.lParameter: Waste gasesconsumed F.kParameter: Waste gasesflared F.lParameter: Total pulp produced F.n

    .d F.h G.d WG(all). – G.e MH-5

    .1.f F.g G.1.f MH-3– – – MH-3– F.h – WG(all)– F.h – WG(all)– F.h – WG(all)– F.a – MH-3

    Parameter: Intermediateproducts F.o – F.a – -

    Sheet F

    No direct impact on

    attributed emissions

    (consistency checks, etc.)

  • Case study 1

    Installation boundaries

    Lime kiln 1

    Lime kiln 2

    Lime mill

    Natural gas400 TJ/year

    Petcoke50 TJ/year

    Limestone170.000 t/year

    Lime

    95.000 t/year

    EF Natural gas

    EF Petcoke EF

    EF Limestone

    56 t CO2/TJ

    96 t CO2/TJ

    0.44 t CO2/t

    Parameter Value

    Activity level (HAL)

    DirEm* (MP source streams)DirEm* (Internal source streams)DirEm* (CO2 feedstock)

    EmH,importEmH,exportWGcorr,importWGcorr,exportEmel,exchEmel,prod

    Parameter: Fuel inputParameter: Fuel input from WGParameter: Heat producedParameter: Heat from pulpParameter: Heat from nitric acidParameter: Waste gases producedParameter: Waste gases consumedParameter: Waste gases flaredParameter: Total pulp producedParameter: Intermediate products

  • Case study 1

    Installation boundaries

    Lime kiln 1

    Lime kiln 2

    Lime mill

    Natural gas400 TJ/year

    Petcoke50 TJ/year

    Limestone170.000 t/year

    Lime

    95.000 t/year

    EF Natural gas

    EF Petcoke EF

    EF Limestone

    56 t CO2/TJ

    96 t CO2/TJ

    0.44 t CO2/t

    Parameter Value

    Activity level (HAL) 95.000 t

    DirEm* (MP source streams) 102.000 t CO2DirEm* (Internal source streams)DirEm* (CO2 feedstock)

    EmH,importEmH,exportWGcorr,importWGcorr,exportEmel,exchEmel,prod

    Parameter: Fuel input 450 TJParameter: Fuel input from WGParameter: Heat producedParameter: Heat from pulpParameter: Heat from nitric acidParameter: Waste gases producedParameter: Waste gases consumedParameter: Waste gases flaredParameter: Total pulp producedParameter: Intermediate products

  • Case study 2

    7

    Identify for all sub-installations:

    Reactor 2Boiler

    FlaringSafety

    flaring

    Heat1

    Installation boundariesWGexport

    (to EU ETS installation)

    Heat2(to districtheating)

    Electricity

    Reactor 1 Coutput,1(Product BM,CL)

    Fuel1

    CInput

    Fuel2

    He

    at3

    Co

    utp

    ut,

    2

    Parameter Value

    Activity level (HAL)

    DirEm* (MP source streams)DirEm* (Internal source streams)DirEm* (CO2 feedstock)EmH,importEmH,exportWGcorr,importWGcorr,exportEmel,exchEmel,prod

    Parameter: Fuel inputParameter: Fuel input from WGParameter: Heat producedParameter: Heat from pulpParameter: Heat from nitric acidParameter: Waste gases producedParameter: Waste gases consumedParameter: Waste gases flaredParameter: Total pulp producedParameter: Intermediate products

    Product(CL, no BM)

  • Case study 2 – solution (1) Sub-installation 1: Product BM Parameter Value

    Activity level (HAL) AL(Coutput,1)

    DirEm* (MP source streams) 3.664 x (Cinput – Coutput,1) [t CO2e]DirEm* (Internal source streams) – 3.664 x Coutput,2 [t CO2e]DirEm* (CO2 feedstock)EmH,importEmH,export – Heat3 [TJ] x BMHeatWGcorr,importWGcorr,export – WGexport [TJ] x EFNG xCorrFEmel,exchEmel,prod

    Parameter: Fuel input Fuel(Cinput) [TJ]Parameter: Fuel input from WGParameter: Heat producedParameter: Heat from pulpParameter: Heat from nitric acidParameter: Waste gases produced WG(export + flaring + safety flaring) [TJ]Parameter: Waste gases consumed WG(safety flaring) [TJ]Parameter: Waste gases flared WG(Flaring) [TJ]Parameter: Total pulp producedParameter: Intermediate products

    27

    Reactor 1

    Reactor 2Boiler

    FlaringSafety

    flaring

    Heat1

    Installation boundariesWGexport

    (to EU ETS installation)

    Heat2(to district heating)

    Electricity

    Coutput,1(Product BM,CL)

    Fuel1

    CInput

    Fuel2

    Heat3

    Co

    utp

    ut,

    2

    Product(CL, no BM)

  • 32

    Reactor 1

    Reactor 2Boiler

    FlaringSafety

    flaring

    Heat1

    Installation boundariesWGexport

    (to EU ETS installation)

    Heat2(to district heating)

    Electricity

    Coutput,1(Product BM,CL)

    Fuel1

    CInput

    Fuel2

    Heat3

    Co

    utp

    ut,

    2

    Product(CL, no BM)

    Case study 2 – solution (2) Sub-installation 2: Heat BM, CL Parameter Value

    Activity level (HAL) Heat1 + Heat3 [TJ]

    DirEm* (MP source streams) 0DirEm* (Internal source streams)DirEm* (CO2 feedstock)EmH,import + Heat1 [TJ] x EFHeat + Heat3 [TJ] xBMHeatEmH,exportWGcorr,importWGcorr,export DeterminedEmel,exch via “CHP Tool”Emel,prod

    Parameter: Fuel input 0Parameter: Fuel input from WGParameter: Heat produced + Heat1 + Heat3[TJ]Parameter: Heat from pulpParameter: Heat from nitric acidParameter: Waste gases producedParameter: Waste gases consumedParameter: Waste gases flaredParameter: Total pulp producedParameter: Intermediate products

  • 31

    Reactor 1

    Reactor 2Boiler

    FlaringSafety

    flaring

    Heat1

    Installation boundariesWGexport

    (to EU ETS installation)

    Heat2(to district heating)

    Electricity

    Coutput,1(Product BM,CL)

    Fuel1

    CInput

    Fuel2

    Heat3

    Co

    utp

    ut,

    2

    Product(CL, no BM)

    Case study 2 – solution (3) Sub-installation 3: District heating Parameter Value

    Activity level (HAL) Heat2 [TJ]

    DirEm* (MP source streams) 0DirEm* (Internal source streams)DirEm* (CO2 feedstock)EmH,import + Heat2 [TJ] x EFHeatEmH,exportWGcorr,importWGcorr,export DeterminedEmel,exch via “CHP Tool”Emel,prod

    Parameter: Fuel input 0Parameter: Fuel input from WGParameter: Heat produced Heat2 [TJ]Parameter: Heat from pulpParameter: Heat from nitric acidParameter: Waste gases producedParameter: Waste gases consumedParameter: Waste gases flaredParameter: Total pulp producedParameter: Intermediate products

  • 34

    Reactor 1

    Reactor 2Boiler

    FlaringSafety

    flaring

    Heat1

    Installation boundariesWGexport

    (to EU ETS installation)

    Heat2(to district heating)

    Electricity

    Coutput,1(Product BM,CL)

    Fuel1

    CInput

    Fuel2

    Heat3

    Product(CL, no BM)

    Co

    utp

    ut,

    2

    Case study 2 – solution (4) Sub-installation 4: Fuel BM, CL Parameter Value

    Activity level (HAL) Fuel2 + Fuel(Coutput,2) [TJ]

    DirEm* (MP source streams) Fuel2 x EF2 [tCO2e]DirEm* (Internal source streams) + 3.664 x Coutput,2 [t CO2e]DirEm* (CO2 feedstock)EmH,importEmH,exportWGcorr,importWGcorr,exportEmel,exchEmel,prod

    Parameter: Fuel input Fuel2 + Fuel(Coutput,2) [TJ]Parameter: Fuel input from WGParameter: Heat producedParameter: Heat from pulpParameter: Heat from nitric acidParameter: Waste gases producedParameter: Waste gases consumedParameter: Waste gases flaredParameter: Total pulp producedParameter: Intermediate products

  • PITANJA?

    HVALA NA PAŽNJI!

    U prezentaciji su korišteni materijali Umweltbundesamt Austria i SQ Consult s radionica u organizaciji EK, veljača-ožujak 2019. godine