OSMOSE · Nathalie Grisey, RTE R&D, project coordinator BRIDGE General Assembly 11 thand 12...

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OSMOSE Nathalie Grisey, RTE R&D, project coordinator BRIDGE General Assembly 11 th and 12 th February 2020 Parallel Session 7 Sector Integration

Transcript of OSMOSE · Nathalie Grisey, RTE R&D, project coordinator BRIDGE General Assembly 11 thand 12...

  • OSMOSE

    Nathalie Grisey, RTE R&D, project coordinator

    BRIDGE General Assembly 11th and 12th February 2020

    Parallel Session 7 Sector Integration

  • WP1 : optimal mix of flexibilities

    today to 2050

    FLEXIBILITYNEEDS

    FLEXIBILITYSOLUTIONS?

    Synergies?

    Multi-sector technologies considered:

    – Electrification of heating

    – Smart electric vehicles

    – Power to Gas

    • OSMOSE : 2018-2021 – 28M€

  • Flexibility assessment –

    France 2035

    Scenario V Scenario A (more RES)

    Scenario V Scenario A (more RES)

    Increasing needs of weekly power flexibility : potential for smart EV?

    High needs of seasonnal energyflexibility : potential for gas?

    More info : Multi-temporal assessment of power system flexibility requirement, Heggarty and al.

    https://hal-iogs.archives-ouvertes.fr/PERSEE/hal-01998837v1

  • 05ES

    07ES

    17FR 18FR

    42PL

    43PL

    44PL

    63BA

    RS

    80NO

    04ES

    14FR 15FR

    06ES

    19FR

    21FR

    22FR

    26FR 35DE

    33DE34DE

    37DE

    72DK

    45PL

    48CH

    52IT

    57SI

    62HR

    53IT64ME

    54IT

    55IT

    70AL

    92UK

    96IE

    95UK

    99FR

    41PL

    73EE

    75FI

    77LT

    78LV

    66BG

    68GR101MI

    69GR

    105LY

    104TN

    56IT

    98IT

    16FR

    10ES

    103DZ

    09ES

    13PT

    102MA

    59RO

    01ES

    02ES

    03ES

    08ES

    12PT

    39CZ

    20FR

    24FR 58HU

    100EA

    46SK

    50AT51AT

    40CZ29LU

    25FR

    27FR

    23FR

    65RS

    67MK

    47CH

    36DE

    11ES

    107NS

    94UK

    28BE

    88SE

    93UK

    114NS

    31DE

    79NO

    87SE

    81NO82NO

    49AT

    60RO

    61RO

    83NO

    84NO 86SE

    74FI

    85NO

    112NS

    113NS

    111NS

    116NS

    115NS109NS

    108NS

    91UK

    On-shore cluster

    Rest of the World cluster

    Nord Sea off-shore cluster

    AC link with impedance and GTC

    AC link with GTC only

    DC link

    Equiv. link with RoW

    Equiv. link with Nord Sea cluster

    110NS

    106NS

    2

    1

    6

    6

    14

    82

    14

    14

    14

    12

    3

    62

    90UK 30NL

    311 919

    413

    4

    1

    6

    4

    4

    79

    4

    238DK

    2

    89SE

    32DE

    3

    2

    4

    4

    2

    2

    2

    3

    3

    4

    73

    2

    2

    2

    2

    2

    21

    1

    MethodologyTwo open source simulators of the European

    system :GENESYS✓ Capacity expansion ✓ Interfaces with gas, heating and

    mobility

    ANTARES✓ Unit commitment✓ Probabilistic✓ 100 regions in Europe

    http://www.genesys.rwth-aachen.de/wordpress/https://antares-simulator.org/

  • Gas – Electricity interface (1/2)

    0

    100

    200

    300

    400

    500

    600

    700

    800

    Electricity to Gas Gas to electricity Electricity to Gas Gas to electricity Electricity to Gas Gas to electricity

    2014 2030OSMOSE scenario "Current goals

    achieved"

    2050OSMOSE scenario "Current goals

    achieved"

    Interface Electricity - Gas (Europe, electrical TWh)

    To produce back electricity For "pure" gas usage From "electrical gas" From other gas

    40% efficiency

    • Gas generation offers a significant flexibility in decarbonised scenarios• Power2Gas becomes significant in ambitious decarbonised scenarios in 2050

    Other gas usage

  • -40000

    -30000

    -20000

    -10000

    0

    10000

    20000

    30000

    40000

    50000

    60000

    Example of a country hourly profile in 2050

    Gas to Elec

    Elec to Gas

    SUMMERSPRING

    • Power2Gas is at full power most of summer• Gas generation is limited but with very high peaks in winter

    Gas – Electricity interface (2/2)

  • EV : France – 2035 (1/2)

    • Adequacy : In the most challenging case, with 16 millions EV, security of supply is ensured with only ~50% of (simple) smart charging.

    • CO2 emissions : With a low carbon power mix, EV development reduces the GHG footprint of transportation, even when including battery’s LCA

    • Type of charge : Smart charging and V2G can reduces the cost of electricity generation

    More info : RTE study

    https://www.rte-france.com/sites/default/files/electromobilite_synthese_9.pdf

  • EV : France – 2035 (2/2)

    • A large part of total benefits can be attained using simple smart-charging (static

    tariff-based)

    • Economic gains associated with V2G are high, even though they are dependent on

    deployment level of smart charging

    More info : RTE study

    https://www.rte-france.com/sites/default/files/electromobilite_synthese_9.pdf

  • Next steps

    1) Consolidate the scenarios by iterations

    between the models - 2020

    2) Analyse the behaviors and benefits of the

    different interacting technologies - 2021

    https://www.osmose-h2020.eu/

    @Osmose_H2020

    osmose-h2020

    https://www.osmose-h2020.eu/

  • Thanks for your attention

  • ✓ EU funded (Grant : 21.8 M€)

    ✓ 33 partners

    ✓ Leaders: RTE, REE,

    TERNA, ELES, CEA,

    TUB

    ✓ 2018 – 2021

    The consortium

  • Studies

    OSMOSE workplanDemonstrators

    Grid forming by multi-services hybrid

    storage (WP3)

    Multi-services by different storage

    and FACTS devices (WP4)

    Multi-services by coordinated grid

    devices, large demand-response and

    RES (WP5)

    Near real-time cross-border energy market (WP6)

    Market designs

    and regulations

    (WP2)

    Optimal mix of

    flexibilities (WP1)

    Scaling-up &

    replication (WP7)

  • Demonstrators Mapping

    GENERATION DEMAND GRID STORAGE

    Wind Hydro IndustrialDynamicthermal rating

    Hybrid storage

    OFFER-DEMAND BALANCING WP6

    RESERVE (FCR, FRR)WP5 WP3

    WP4

    SYNCHRONISM AND INERTIAWP5

    WP4WP3

    VOLTAGEWP5 WP5 WP4

    CONGESTION MANAGEMENTWP6 WP5 WP5

    WP4WP3

    WP3

    WP6

    WP5

    WP4

  • Flexibility assessment –

    Methodology

    Gap between Pmax and Pmin

    “Unstored” energy in winter

    Weekly requirement, sized for both power and energy

    Daily requirement, sized for both power and energy

    Annual requirement, sized for both power and energy

    “Stored” energy in summer

    Power system flexibility

    Modulation aroundmean load

    Annual modulation

    Weekly modulation

    Daily modulation

    More info : Multi-temporal assessment of power system flexibility requirement, Heggarty and al.

    https://hal-iogs.archives-ouvertes.fr/PERSEE/hal-01998837v1

  • Electricity – Gas detailed interface

    Power system

    Electrolysis Hydrogène

    Gas grid

    Industry

    Mobility

    Heat

    Methanation

    H2 storage

    Gas storage

    CCGT

    Fuel cell

    Gas uses

    Hydrogen direct uses

    Methane

    Power-to-gas out

  • EV France – 2018

    1240

    420280 280 250 240

    -10

    -400

    -200

    0

    200

    400

    600

    800

    1000

    1200

    1400

    Natural charging Simple tariffcharging

    Simple tariffcharging and

    contracted powermanagement

    Vehicle-to-home Vehicle-to-grid Vehicle-to-grid andreserve markets

    Thermic vehicle BEV

    Annual energ

    y b

    ill (

    €/y

    )

    Fuel cost Market revenue Electricity cost (power)

    Electricity cost (energy) Net annual charging cost

    Annual energy expense for a vehicle travelling 14.000 km / year

    More info : RTE study

    Unidirectional charge Bidirectional charge

    https://www.rte-france.com/sites/default/files/electromobilite_synthese_9.pdf