energy transition with a use of geo-spatial · 2018-05-01 · energy transition with a use of...
TRANSCRIPT
Energy transition with
a use of Geo-spatial
and Big Data
Alisa Yushchenko
Consultant on energy programs
Services Industriels de Genève, Switzerland
Training of the national officials and experts responsible for sustainable energy data collectionMinistry of Energy building, Tbilisi, Georgia
12 September 2017
Energy transition in Geneva
2
Energy policy
objectives
Energy
planning
Energy
programs
Energy consumption
CO2 emissions
change
Evaluation
Infrastructure
Energy efficiency
Renewable
energy
Coordination between solutions and scales
3
RestaurantsOffice
buildings
Households
Common spaces in building
SolarHeat pumps
District heating
Insulation
Data collection and use challenges
4
Geo-spatial and Big Data producers:
Data characteristics:
Collected?
Systematized?
Accessible?
Updated?
(Un)used?
Statistics
Maps
Energy consumption
InfrastructureEnergy projects Field data Studies
AtlasEco21: planned content
5
Buildings Technology &
Consumption
Energy saving &
Renewable energy
potentials
AtlasEco21: “building” data
6
Physical characteristics
Year of construction
Surface area (in total, heated surface)
Landlord data
Building owner
Managing company
Socio-economic characteristics
Inhabitants (number if > 3 households in building)
Households (number)
Companies (type of business, number of employees)
AtlasEco21: “Technology and consumption”
data
7
Energy consumption
Heating & Hot water (kWh/year, kWh/m2/year - nominal values and
corrected for climate conditions)
Electricity (kWh/year - in total, by households, by companies, for
common usage)
Water (m3/year – in total, by households, by companies)
Heating systems
Energy source (heating oil / natural gas / district heating / renewable
energy)
Power (kW)
Year of installation
AtlasEco21: “Energy saving & Renewable
energy potentials” data
8
Energy program results:
Energy & CO2 savings by building / consumer
Energy saving potentials:
Heating & hot water by building
Electricity & water in households, companies and common
spaces
Energy supply potentials
District heating
Heat pumps
Solar
Functioning principle
9
ATLAS
ECO21
Data source 1
ETLBD
BD
ETLTool 1
Tool 2
Tool n
Data source n
AtlasEco21: example of heating planning tool
(data collected)
10
AtlasEco21: example of energy supply
contracting tool
11
Functions:
Data on heating systems by building
address (regular update)
Individual building and building
group levels
Pre-qualification of technical and
economic feasibility
Contracting offer development (with
comparison of alternatives)
Evaluation of CO2 savings
Automatization of reports
Objective:
Centralize data from studies and
pilot projects
Reduce the costs of the projects
12
AtlasEco21: example of energy saving tool for
buildings
AtlasEco21: example of energy saving tool for
business
13
Min. Median Max. You
Sector performance Company performance
Energy
saving
potential
Project value
14
Data valorized:
Collected -> Systematized -> Accessible -> Updated -> Used
Dialogue facilitated:
State – Utility – Energy programs – Installers – Consumers & Building owners - Evaluators
Energy efficiency & renewable energy potentials identified:
Building -> District -> Canton
Technical efforts coordinated
Individual renewable heating systems – District heating – Envelope insulation
Addressing multiple potentials at once: heating – electricity – water
Project implementation facilitated
Visual communication & Automatization -> Time and costs saved