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Siemens Distributed Energy Systems
siemens.comRestricted © Siemens AG 2017
Restricted © Siemens AG 2017
Page 2
The traditional energy system has changed
Gas Cooling / heating
Wind or PV
(private)
Storage
Diesel
generatorMicrogrid
E-mobility
Smart buildings
Heat
storage
Onshore
wind
Large-scale PV
installation
Storage
(gas, liquids)
Biomass
Cogeneration
Gas distribution
Power to value
(gases, liquids, chemicals,)
Gas transport
Offshore wind farm
Onshore wind farm
Gas supplierGas plant
District heating
(cooling)
Smart electricity meters
Grid control
center
Hydropower
plant
Buildings,
computer centers, nanogrid
Transformer
Substation Substation
Fossil-fuel power plant
Conventional power gridElectricity
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Why it has changed
Strom Gas Kälte/Wärme
Wind oder PV
(privat)
Speicher
Diesel-
Generator„Microgrid“
Elektromobilität
Intelligente Gebäude
Wärme-
speicher
Onshore-
Wind
Große PV-
Installation
Speicher
(Gas, Flüssigkeiten)
Biomasse
KWK
Gasverteilung
Energieveredelung
(Gase, Flüssigkeiten, Chemie)
Gastransport
Offshore-Windpark
Onshore-Windpark
GaslieferantGaswerk
Fernwärme
(-kälte)
Netzleitstelle
Wasserkraftwerk
Gebäude,
Rechenzentren, Nanogrid
Transformator
Umspannwerk Umspannwerk
Fossiles Kraftwerk
Intelligente Stromzähler
New technologies
Digitalization
Availability
Cost-effectiveness,efficiency
Nuclear phase-out
Market
liberalization
Local emissions
Reduction of
CO2 emissions
Electrification, increased demand
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40
60
80
100
120
140
160
180
2015 2020 2025 2030 2035
Forecasts for 2015-35
− Disruption via storage? - 40% (2015-20) → Primarily through scaling
− Photovoltaic: - 45% → Even small roof-top
installations will be competitive
− Offshore wind : - 43% → Industrialization of production and simplification of value creation
− Onshore wind: - 22% → Improvement via more full-load hours and new locations
(weak-wind turbines)
− Fossil fuels with increasing costs: + 32% coal, + 12% gas
Sources: IHS (2015), Bloomberg (2016)
Power generation costs worldwide (€ / MWh)
Gas PV Offshore windCoal Onshore wind
Price development of storage facilities worldwide (€ / kWh)
Storage (lithium ions)
200
400
600
New technologies making power generation competitive
0
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Shift in new installations toward distributed power generation
33%
2030
~444
67%
2020
~358
38%
62%
2010
~373
51%
49%
Decentralized Centralized Growth rates
New installations worldwidein GW p.a.
DecentralizedOnshore wind, photovoltaic,
small turbines, motors, storage
2.5%
-1.3%
CentralizedFossil, nuclear, offshore
wind, large-scale hydropower plants
0.9%
-3.3%
0.7%
2.0%
3.0%
Growth rate2010-2030
Sources: Siemens (2016), IHS (2016), Bloomberg (2016)
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The implications for markets
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The challenges and opportunities
Decentralization
Is changing the
way we use and
design energy
networks
Societal issues
such as fuel
poverty, air
pollution and
austerity
New players
in the energy
industry such as
local authorities
Customer
behavior
can be impacted
more than
before
Big data
will present
opportunities to
create value for
consumers and
producers
Some examples
siemens.comRestricted © Siemens AG 2017
Restricted © Siemens AG 2017
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Co-Op City in Bronx, New York
‒World’s largest cooperative housing project, 35 buildings, 14,000 apartments w/ 60k inhabitants
‒Flexible generation of electricity, heat and cold
‒40MW of power generated by cogeneration plant, including gas and steam turbine, DCS and microgrid
Payback <5yrPower Plant alone with
short payback period, feed-
in of electricity could reduce
payback period to 3 years!
Example 1: Strengthen resilience of supply in New York
CO2 ���� 50%Greenhouse gas emissions
from purchased electricity
and fuel oil consumption
reduced by over 50%.
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Example 2: Reducing emissions at Keele University
| The SEND will be a demonstrator facility for government bodies, research institutions, the energy industry and other related businesses.
| It will show how a smart energy network comprising generation, storage and monitoring can improve energy security, reduce energy costs and reduce carbon emissions.
| Keele University engaged Siemens plc to produce the design and technical specification for the proposed Smart Energy Network Demonstrator (SEND).
| Siemens has deployed the Smart Grid Compass methodology to act as a framework. This is the first reference in the UK for the Compass., although it has been used to deliver more than 20 smart grid
transformations across the globe.
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Example 2: Reducing emissions at Keele University
The university will reduce its GHG emissions by 62% against its 1990 baseline
62% reduction
in emissions
Saving more than 8,000 tonnes of CO2 from being released into the atmosphere each year
8,047 tonnes
of CO2First time Siemens has deployed its Smart Grid Compass methodology in the UK
1st UK Smart Grid
Compass study
The SEND will generate more than £80m of Gross Value Added (GVA) in the Stoke region over next 20 years.
£4m per year GVA
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Example 3: Reduce costs in London
| Sharing Cities is a project funded by the EU’s
Horizon 2020 research and innovation programme.
| Three lead cities (London, Lisbon and Milan) and three follower cities (Bordeux, Burgas
and Warsaw).
| It will provide a better, common approach to making smart cities a reality.
| Total cost is €25million
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Example 3: Reduce costs in London
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Example 3: Reduce costs in London
| Trialling 300 smart parking bays that aim to optimise parking spaces and
help drivers find a space quickly and conveniently.
| Testing shared electric bikes to see if these support a shift from private
cars, while electric vehicles will be piloted for local deliveries and car sharing.
| Using the River Thames as a renewable energy source to provide
affordable heat to local homes.
| Installing solar panels on homes to provide green energy and improve energy efficiency. The supply and demand of energy will be locally
managed by energy partners involved in the programme via state-of-the-art digital technology that will also reduce energy bills and carbon emissions.
| Smart lamp post to integrate street lighting with an array of digital services
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Example 3: Reduce costs in London
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Example 3: Reduce costs in London
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In essence...
The energy market is becoming more distributed and new business models are evolving – we need to innovate beyond technology and create
flexible solutions
We need integrated solutions, optimizing supply, demand and the grid
interaction across all modes of energy
Next level is aggregation, optimization of the system of systems, need a
common platform to enable this next level of optimization
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Simon BurgessSenior Consultant
Siemens plc
07808 822735
Thank you