tilos – technology innovation for the local scale optimum integration

TILOS – TECHNOLOGY INNOVATION FOR THE LOCAL SCALE OPTIMUM INTEGRATION
OF BATTERY ENERGY STORAGE – THE PROJECT EXPERIENCE SO FAR
D. Zafirakis, J.K. Kaldellis
Lab of Soft Energy Applications & Environmental Protection,
Mech. Engineering Dept., Piraeus University of Applied Sciences; Greece,
Tel. +30-2105381580; URL: http://www.tiloshorizon.eu/; Email: [email protected]
Introduction
The Consortium
TILOS is a European Innovation Project. Its main goal is to
demonstrate the potential of local / small-scale battery storage to
serve different roles within an island microgrid environment that
exchanges energy with a main electricity network.
The consortium engages 15 partners from 7 EU countries: Greece,
Italy, France, UK, Spain, Germany and Sweden. Because of this
geographical spread, the project will reflect to different markets,
strategies and policies across Europe. TILOS project is coordinated by
the Piraeus University of Applied Sciences (PUAS).
The project aims to achieve large-scale RES penetration and storage
value maximization through the optimum integration of a hybrid RES
(wind and PV) power station, together with advanced batteries,
distributed, domestic heat storage, smart metering and DSM.
TILOS started on the 1st of February 2015 and its duration is 4 years.
The project receives funding from the EU H2020 research and
innovation program under the call for Competitive Low-Carbon
Energy with its total budget reaching 15M€.
System Description & Main Objective
Following completion of year-1, parallel tasks are progressing rapidly,
these including:
• Full year measuring campaign
• Completion of the licensing process
• Detailed energy and grid study
• Design of the residential DSM solution
• Development of forecasting models
• Multi-pack battery testing at CEA
• Finalization of SCADA system design
• National, representing project of Greece in COP21-Paris
• 1st round of surveys and training seminars engaging the locals
Load Measurements_Tilos (4/4/2015 to 4/3/2016)
900
840
780
720
660
600
540
480
420
360
300
240
180
120
60
0
Entire Island
Livadia
04.04.15
10.04.15
16.04.15
22.04.15
27.04.15
03.05.15
09.05.15
15.05.15
20.05.15
26.05.15
01.06.15
07.06.15
12.06.15
18.06.15
24.06.15
30.06.15
05.07.15
11.07.15
17.07.15
23.07.15
29.07.15
03.08.15
09.08.15
15.08.15
21.08.15
26.08.15
01.09.15
07.09.15
13.09.15
18.09.15
24.09.15
30.09.15
06.10.15
11.10.15
17.10.15
23.10.15
29.10.15
03.11.15
09.11.15
15.11.15
21.11.15
27.11.15
02.12.15
08.12.15
14.12.15
20.12.15
25.12.15
31.12.15
06.01.16
12.01.16
17.01.16
23.01.16
29.01.16
04.02.16
09.02.16
15.02.16
21.02.16
27.02.16
Load Demand (kW)
Three different operational strategies will be tested during the lastyear demo stage of the project, supported also by different micro-grid
boundaries.
Project Progress
Date
10
OBSERVED
9
PREDICTED
8
7
Wind Speed (m/s)
The energy system will employ wind (800kW) & solar (160kW) power
combined with NaNiCl2 battery storage, residential hot water storage
and DSM, coordinated by an advanced energy management system.
6
5
4
3
2
1
0
0
200
400
600
800
Number of Predictions
1000
1200
1400