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Smart Cities Marketplace

Project Type

Project status

Mobility Type of Intervention

10 Projects

The Smart Cities Marketplace provides you with vital knowledge to support you in moving your smart city ambitions forward. Here you will find use cases from more than 90 successful European projects, including 18 Lighthouse projects, sharing solutions implemented in both small and medium-sized towns and in metropolises such as London, Barcelona and Vienna. Many projects have reported their core data into our Self-Reporting Tool, to be picked up and developed into bankable solutions.

TRIANGULUM Site Manchester

Details

Project

Project status
Finished

City

Location

Description

The City of Manchester is one of 10 local authorities that make up the Greater Manchester conurbation.  Manchester has a population of over 500,000 with one of the largest economies in the UK. The innovation district, ’Oxford Road Corridor Manchester’, has been the focus of Triangulum’s activities in the city – a 2 km long spine that contains two of the UK’s largest universities and one of the largest medical research campuses in Western Europe, it makes up 20% of the city’s economic output. It employs 71,700, with an estimated 7,000 new jobs by 2025. There also are 80,000 students in the Oxford Road Corridor.

The Manchester Triangulum consortium is led by the City Council and includes Siemens PLC, Pixel Mill, University of Manchester and Manchester Metropolitan University.

Manchester’s approach is based upon an understanding that cities function as systems, involving a complex interaction between individuals, markets, infrastructure networks and public services. Every intervention has been chosen because it demonstrates the benefits of integration in different ways.

Triangulum has enabled the partners to build on the work already undertaken to establish a smarter, more independent infrastructure whereby energy generation, its supply, storage and use is managed in a more demand responsive manner.

The new investments in renewable energy generation, supply and demand management have been connected through a new ICT infrastructure managed by Siemens.  The project has also created a data platform - a Manchester-i.  This aims to allow enable greater analysis and better informed decision making at both a strategic and operational level.   In addition, the city’s programme to remove cars on Oxford Road, in the Corridor area supported a mobility component focused on electric vehicles and eCargo bikes.

Demo Site Expected Impact

Manchester’s objective is for Corridor Manchester to become one of the largest knowledge rich low-carbon districts in Europe. In achieving these overall impacts, the aim is to decouple a reduction in carbon emissions whilst at the same time increasing economic activity. Very few cities have been able to exhibit this smart green growth but the Corridor has the right conditions and profile to demonstrate this.

Technologies

Buildings and energy

  • Building integrated renewable energy sources

    • Clean power generation (lower GHG)

  • Small energy storage

    • On-site generation, storage and its integration (renewable and conventional)

Mobility & Transport

  • Clean fuels and fueling infrastructure
    • Developing  sustainable urban mobility schemes
  • Electric, hybrid and clean vehicles:
    • Replacement  of diesel vehicles with electric
  • Bicycle infrastructure
    • Electric cargo bikes

ICT

ICT: 

  • Building energy management system
    • Energy optimisations in existing buildings
  • Central controller connected to the energy infrastructure that can optimisatise by responding to external signals

Urban data platform

    • Open Data and Service Engine
    • Platform receiving data from a number of sources from different sources: energy, transport, weather, air quality
    • Manchester-i - Visualisation platform and as a tool for others to create technology innovations

Building aspects

  • Building Energy Services
  • heating (only)
  • Installed Renewable Energy Sources
  • photovoltaic
  • Technology used to supply the buildings
  • boiler

Energy Carriers

  • Biomass
  • Electricity

Energy Systems Types

  • Infrastructure & System Integration
  • DHC extension
  • Storage
  • Electrical Storage

Mobility Type of Intervention

  • Vehicles

Thematic Field

  • Energy System(s) Integration
  • Information and Communication Technologies
  • Mobility and Transport
  • New Building(s)

Stardust Pamplona

Details

Project

Project status
Finished

City

Location

Description

The City of Pamplona is considered to be the city with the highest quality of life in Spain. Also, it is highly regarded for developing its energy grid based renewable energy resources (RES).                              

Other than providing RES to the community, it will other smart and sustainable solutions for its communities by empowering and protecting the citizens through fair and socially inclusive actions.

Demo Site Expected Impact

The City of Pamplona expects to reduce their consumption on fossil-energy related resources and increase their energy savings and usage of renewable energy.

Technologies

Buildings and energy

Different types of energy-efficient schemes will be implemented in the form of ICT, renewable energy resources and other unconventional techniques.

Mobility & Transport

In accordance to the Navarra Energy Plan Horizon,  use of electric vehicles will be promoted within the city to boost citizens' accessibility to move around the city.

Building aspects

  • Building Energy Services
  • cooling (only)
  • Building Energy Services
  • DHW (only)
  • Building Energy Services
  • heating (only)
  • Building Energy Services
  • heating and cooling
  • Building Energy Services
  • heating and cooling and DHW
  • Building Energy Services
  • heating and DHW
  • Building Energy Services
  • lighting and appliances
  • Installed Renewable Energy Sources
  • photovoltaic
  • Technology used to supply the buildings
  • boiler
  • Technology used to supply the buildings
  • electrical equipment
  • Technology used to supply the buildings
  • heat pump: compression

Energy Carriers

  • Biomass
  • Domestic gas - grid-bound
  • Electricity
  • Heat/district heat
  • Light oil
  • Solar thermal energy

Energy Systems Types

  • Infrastructure & System Integration
  • DHC extension

Mobility Type of Intervention

  • Infrastructure
  • Vehicles

Thematic Field

  • Energy System(s) Integration
  • Information and Communication Technologies
  • Mobility and Transport
  • New Building(s)
  • Refurbished Building(s)

Contact

Name
Jose Costero
Organisation
Ayuntamiento de Pamplona
Email
j.costero@pamplona.es

SINFONIA Site Innsbruck

Details

Project

Project status
Finished

City

Location

Description

The city of Innsbruck in Austria (120 000 inhabitants) defined its 2025 Energy Plan back in 2009. In this context, and as part of the SINFONIA project, the city has selected its eastern district to demonstrate the large-scale implementation of energy-efficient measures, with the objective of achieving on average 40 % to 50 % primary energy savings in the demo sites, and to increase by at least 30 % the share of renewables in the district’s energy mix.

Demo Site Expected Impact

* Further information regarding the technical and financial performance will be available at a later stage.

As a result of the energy efficiency, the final energy consumption in Innsbruck will be reduced from 99 kWh/m²/yr (business as ususal) to 47 kWh/m²/yr, according to design data. This amounts to 535 MWh/yr of final energy savings for the two buildings reported by the project so far. The total primary energy savings go up to 607 MWh/yr while the CO2 reduction is 164 tonnes every year. These positive environmental values represent the expected results of the project and are likely to increase when more information is reported.

Technologies

Buildings and energy

* Information regarding the economic performance will be available at a later stage.

The implemented measures in Innsbruck are:

Energy efficiency in buildings

  • Retrofitting the building envelope
    • 66 000 m² of residential and public buildings from the period 1930 to 1980 are to be retrofitted to dramatically improve indoor quality and energy performance, and reduce the final energy demand by up to 80 %
  • Building integrated renewable energy sources
    • Integration of renewable energy sources on-site (photovoltaic, solar thermal)
  • Heat pumps

Energy systems integration

  • District heating and cooling
    • The district heating network is to be extended and optimised to increase the use of renewable energy sources by 95 % and reduce the use of fossil fuel by 22 %. Solar energy and innovative biomass gasification are to be integrated into the network.
  • Polygeneration
  • Waste heat recovery
    • Recovery of heat/cold from local industries, wastewater and geothermal heat from the Brenner Tunnel

ICT

  • Smart electricity grid
    • Smart grids and smart home applications are planned to combine demand and supply-side measures to reduce the overall electricity demand by 3 %. Buildings are to be transformed to smart urban model houses. Measures include the smart load control for refrigerators, water boilers and heat pumps, and the involvement of customers.

Building aspects

  • Building Energy Services
  • cooling and DHW
  • Building Energy Services
  • DHW (only)
  • Building Energy Services
  • heating (only)
  • Building Energy Services
  • heating and DHW
  • Building Energy Services
  • lighting and appliances
  • Installed Renewable Energy Sources
  • photovoltaic
  • Technology used to supply the buildings
  • condensing boiler
  • Technology used to supply the buildings
  • district heating (DH) network
  • Technology used to supply the buildings
  • electrical equipment
  • Technology used to supply the buildings
  • electrical heating system
  • Technology used to supply the buildings
  • stove

Energy Carriers

  • Biogas
  • Domestic gas - grid-bound
  • Electricity
  • Hard coal
  • Heat/district heat
  • Light oil
  • Waste heat
  • Wood Chips 30% moisture
  • Wood pellets

Energy Systems Types

  • Infrastructure & System Integration
  • DHC extension
  • Sustainable Generation
  • Boiler
  • Sustainable Generation
  • Co-generation
  • Sustainable Generation
  • Waste heat

Thematic Field

  • Energy System(s) Integration
  • Information and Communication Technologies
  • Refurbished Building(s)

Power House Rossau

View more visualisations of SINFONIA Site Innsbruck

Contact

Name
Klaus Meyer
Organisation
Standortagentur Tirol
Email
sinfonia@standort-tirol.at
Country
Austria

READY Site Växjö

Details

Project

Project status
Finished

City

Location

Description

Växjö municipality, together with its inhabitants, businesses, organisations and university, are all working towards a better environment and a smaller carbon footprint. The city has high ambitions to make itself sustainable, energy-efficient, fossil fuel-free and with a large proportion of wooden buildings. Växjö aims to be at the forefront and therefore participates in various EU projects, among which is the READY project, that demonstrates how the demand of energy and particularly the needs for fossil fuels and release of CO2 can be considerably reduced to nearly zero, and show a sustainable way forward for other European cities.

The project has a whole-city approach, which includes interventions in the fields of retrofitting buildings, integrated energy systems, ICT, and mobility and transportation.

Demo Site Expected Impact

The demo site of Växjö accounts for a total primary energy reduction of 8 020 MWh with total savings of CO2 emissions amounting to 1 778 tonnes.

Technologies

Buildings and energy

The implemented measures in the demo site of Växjö within the READY project are:

Energy efficiency in buildings

  • Retrofitting the building envelope
    • Refurbishment of 376 apartments in the Araby housing district (the sub-areas of Alabastern and Bärnstenen) as well as the City Hall building located in central Växjö, which covers 11 162 m2
  • Small energy storage
    • Some renovated buildings are to be tested as a pilot, being equipped with smart district heating sub-centrals in order to use the building as accumulator.

Energy systems integration

  • District heating and cooling
    • The READY project further develops and enhances the existing district heating and cooling systems in order to increase the overall energy efficiency in the city. Two existing district cooling networks are to be connected so as to increase the renewable energy sources production and increase the amount of waste heat used in the system. The integration of the DH network and the district cooling network is to be performed with absorption cooling machines, making it possible to produce cooling with heat when the electricity price is high and produce cooling with electricity when the prices are low.
  • Waste heat recovery
    • Connection of waste heat sources from more local industries. The waste heat is either to be recovered in the heating system and used as an energy source or used to produce electricity. In both cases, local cooling machines will not cool the waste and therefore the electricity consumption at the local industries will decrease as well.
    • The Green Operating Center in Växjö is progressing, where an innovative cooling system with an integrated piping system is connected to the computer centre to cool down the server hall with district cooling return water.
    • This centre is also designed with efficient hot and cold aisles, making it possible to utilise the heat from servers that would otherwise have been wasted. In this way the PUE (power usage effectiveness) value goes down from 2.2 to 1.2.

Mobility & Transport

  • Clean fuels and fuelling infrastructure
    • A number of pilot charging stations will be realised in cooperation with the electric utility service provider EON
  • Electric, hybrid and clean vehicles
  • Carpooling

ICT

  • Neighbourhood energy management system
    • The retrofit of the sub-areas Alabastern and Bärnstenen will include a number of innovative utility services – all of them connected to the advanced ICT management system, with the purpose of optimising the overall performance and reducing energy consumption.
  • Smart electricity grid
    • Control of the supply and demand and optimisation of the use/re-use of energy across the integrated energy systems (electricity and electric vehicles, as well as district heating)
  • Urban data platform
    • Växjö uses a common and open ICT platform enabling all the required types of services and communication. The communication platform will benefit from the existing open broadband network (provided by Wexnet) inside each building, which is supplemented with support for a digital low-power sensor network provided via a smart communication node installed in each apartment. The smart node is planned to communicate with measuring devices, individual appliances and other sources of information. The software platform is to integrate the utility services and enable real-time visualisation of services on various platforms such as web, tablet, smart phone and television.

Building aspects

  • Building Energy Services
  • heating and cooling
  • Building Energy Services
  • heating and DHW
  • Building Energy Services
  • lighting and appliances
  • Building Energy Services
  • other please specify
  • Installed Renewable Energy Sources
  • hybrid collectors
  • Technology used to supply the buildings
  • district cooling (DC) network
  • Technology used to supply the buildings
  • district heating (DH) network
  • Technology used to supply the buildings
  • electrical equipment
  • Technology used to supply the buildings
  • heat pump: compression
  • Technology used to supply the buildings
  • other please specify

Energy Carriers

  • Biowaste
  • Cold/district cold
  • Electricity
  • Heat/district heat

Energy Systems Types

  • Infrastructure & System Integration
  • DHC extension

Thematic Field

  • Energy System(s) Integration
  • Refurbished Building(s)

Data Center SE-WW1

View more visualisations of READY Site Växjö

READY Site Aarhus

Details

Project

Project status
Finished

City

Location

Description

Aarhus is the second biggest city in Denmark with 300 000 inhabitants. With the aim to become carbon neutral by 2030, the city moves forward with its climate and smart city strategy with a number of sustainable actions and projects, amongst which is READY.

With demonstration measures in the fields of retrofitting buildings, integrated energy systems, ICT and mobility and transportation, Aarhus aims to showcase how the demand for energy and particularly the need for fossil fuels and the release of CO2 can be considerably reduced to nearly zero, and show a sustainable way forward for other European cities.

Demo Site Expected Impact

*Further information regarding the technical and financial performance will be available at a later stage.

The demo site of Aarhus accounts for a total primary energy reduction of 10 938 MWh with 2 706 tonnes of savings of CO2 emissions.

Technologies

Buildings and energy

*Further information regarding the technical and financial performance will be available at a later stage.

Energy efficiency in buildings

  • Retrofitting the building envelope
    • Several retrofit areas are planned in connection with the social housing of Ringgården, the administrative building of Ringgården and private single-family houses.
    • The retrofitting demonstration will meet the demands of the low-temperature district heating energy supply to the area.

Energy systems integration

  • District heating and cooling
    • A low-temperature district heating energy supply is to be demonstrated for the area.
    • The residential area included in the demonstration project is located nearby the new University Hospital. The hospital will have a local district cooling system installed, based on a compressor. Surplus heat from the cooling system will be supplied to the local district heating system through installed heat storage (in order to supply surplus heat at the right time). In this way, energy for cooling and heating is utilised in the most efficient way, and the hospital becomes self-sufficient in heat supply by utilising waste heat from cooling. Such a system has considerable potential for replication, both in Aarhus and in other cities.
  • Photovoltaics
  • Thermal collectors
    • Innovative types of low-cost, large-size photovoltaic-thermal modules. The new highly efficient photovoltaic-thermal elements in a frameless module can be used as roofing material and thereby recover heat losses.
  • Waste heat recovery
    • The heat in the wastewater from the buildings is to be used for domestic hot water preparation. With prefabricated installation manholes, a new modular system with buffer, heat pump and smart grid control are planned for buildings with more than 10 apartments.
  • Electrical energy storage
    • Development and testing of (second-life) battery solutions.

Mobility & Transport

  • Clean fuels and fuelling infrastructure
    • Establishment of charging stations in demonstration settlements and at the new University Hospital in Skejby
  • Electric, hybrid and clean vehicles
    • Innovative technical solutions and business models of battery electric vehicles and the interaction with the low-voltage grid
    • Reinforcement of the introduction and roll-out concepts of electrical vehicles as part of the solutions provided
  • Intermodality
    • Further measures on reduction of private car commuting and internal transportation in the Skejby industrial area – introduction of awareness and benefit measures, public transportation improvements, etc.
  • Car sharing
    • Demonstration of vehicle sharing and vehicle-pooling service integrated with public transportation, company commuting, residential areas, etc.

ICT

Smart electricity grid

Building aspects

  • Building Energy Services
  • heating and DHW
  • Building Energy Services
  • lighting and appliances
  • Building Energy Services
  • other please specify
  • Installed Renewable Energy Sources
  • hybrid collectors
  • Installed Renewable Energy Sources
  • photovoltaic
  • Technology used to supply the buildings
  • district heating (DH) network
  • Technology used to supply the buildings
  • electrical equipment
  • Technology used to supply the buildings
  • electrical storage
  • Technology used to supply the buildings
  • heat pump: compression
  • Technology used to supply the buildings
  • other please specify

Energy Carriers

  • Biowaste
  • Electricity
  • Heat/district heat
  • Solar thermal energy
  • Waste heat
  • Wood Chips 30% moisture

Energy Systems Types

  • Infrastructure & System Integration
  • DHC extension
  • Sustainable Generation
  • Waste heat

Mobility Type of Intervention

  • Infrastructure

Thematic Field

  • Energy System(s) Integration
  • Mobility and Transport
  • Refurbished Building(s)

Contact

Name
Pia Kvorning
Organisation
COWI A/S
Email
pako@cowi.dk
Country
Denmark

CITY-ZEN Site Amsterdam

Details

Project

Project status
Finished

City

Location

Description

The city of Amsterdam has over 850,000 residents from 180 different countries, who own more than 600,000 bicycles. The wider Amsterdam Metropolitan Area has close to 2.5 million inhabitants. The city has a strong commitment to encourage green research, development and investment in sustainable initiatives. As a result, the area is enjoying a rapid uptake of electric transportation and a growing number of companies are developing sustainable products that influence global business. Amsterdam is exceptionally well connected, both physically and digitally.

The city has acted in line with the EU’s 20-20-20 climate targets and has the ambitious goal to reduce CO2 with 40 % compared to 1990 by the year 2025. The City-zen project was one of the major projects in which the city worked with its partners to scale up innovative energy solutions and open networks.

The demonstration objectives of City-zen in Amsterdam were focused on retrofitting existing housing, making the e-grid smarter, and improving and expanding the heat grid.

 

Lessons Learned:

In 5 years of City-zen, the 20 projects yielded many lessons learned.

Top 3 lessons learned overall:

1. Connect

Although it is far from easy, it is also highly advisable to organize peer meetings and exchange ideas between teams from different cities as the meetings will lead to deeper levels of understanding

2. Plan time

Even when fully involved in the implementation of solutions it is important to devote time for experience sharing and dissemination

3. Empower citizens

Involve citizens/inhabitants and truly put them at the heart of the solutions' implementation

More overall learnings can be found in this document: http://www.cityzen-smartcity.eu/wp-content/uploads/2019/11/interactive_final-deliverable-book.pdf

Learnings per project (for example, smart grid projects, retrofitting projects, etc) can be found in the project reports on this page: http://www.cityzen-smartcity.eu/home/reporting/deliverables/

Demo Site Expected Impact

*Information regarding the technical and financial performance will be available at a later stage.

The total CO2 emission savings amount to 7 500 tonnes per year.

Technologies

Buildings and energy

The technologies used in the various projects that were developed during the 5 years of City-zen are plentiful. Examples are:

- the development of a methodology, resulting in a Roadmap

- various smart grid technologies such as Virtual Power Plants, Vehicle-to-Grid applications, End-to-End smartification

- innovative heating and cooling technologies such as using drinking water for pharmaceutical cooling and using river water for sustainable comfort cooling

- transforming building stock to Nearly Zero Energy Buildings, using insulation, PV and PV-T panels, smart meters and energy storage in tertiary buildings among others

You can read the technical details in the project reports on this page: http://www.cityzen-smartcity.eu/home/reporting/deliverables/

Building aspects

  • Building Energy Services
  • heating (only)
  • Building Energy Services
  • heating and DHW
  • Building Energy Services
  • lighting and appliances
  • Building Energy Services
  • other please specify
  • Installed Renewable Energy Sources
  • photovoltaic
  • Installed Renewable Energy Sources
  • solar thermal collectors
  • Technology used to supply the buildings
  • boiler
  • Technology used to supply the buildings
  • condensing boiler
  • Technology used to supply the buildings
  • electrical equipment
  • Technology used to supply the buildings
  • heat pump: compression
  • Technology used to supply the buildings
  • other please specify
  • Technology used to supply the buildings
  • stove

Energy Carriers

  • Cold/district cold
  • Domestic gas - grid-bound
  • Electricity
  • Light oil
  • Other
  • Wood pellets
  • ‘Green’ electricity

Energy Systems Types

  • Infrastructure & System Integration
  • DHC extension
  • Storage
  • Electrical Storage

Mobility Type of Intervention

  • Infrastructure

Thematic Field

  • Energy System(s) Integration
  • Mobility and Transport
  • Refurbished Building(s)

Cooling with drinking water

View more visualisations of CITY-ZEN Site Amsterdam

Contact

Name
Birgit Vandevelde
Organisation
VITO
Email
birgit.vandevelde@energyville.be