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This project is co-funded
by the European Union
Wednesday, July 6, 2016
Savona, Italy
OPTIMUS DSS
Overall Procedure
OPTIMUS DSS GOAL
How the OPTIMUS DSS works
OPTIMUS DSS setup
DSS graphical user interfaces
Actions plans
Contents
OPTIMUS DSS GOAL
The goal of the OPTIMUS project is to help local authorities to
optimise the energy performance of public buildings by
applying the short-term actions suggested by a Decision SupportSystem (DSS) which handles data obtained in a diversity of sources and
domains:
- Weather conditions- Social behaviour- Building energy performance- Energy prices- Renewable energy production
How the OPTIMUS DSS works (1/8)
Weather forecast
Occupants
feedback
Energy prices
De-centralized
sensor (BEMS)
RES production
Available data
Data is captured from the buildings and their context. Semantic framework
integrates the different data sources using semantic web technologies.
How the OPTIMUS DSS works (2/8)
Weather forecast
Occupants
feedback
Energy prices
De-centralized
sensor (BEMS)
RES production
Sunday Monday Tuesday Wednesday Thursday Friday Saturday…Historical data
Pre
dic
tio
n m
od
els
Available data
Prediction models use historical data to forecast
the building behaviour for the following 7 days.
How the OPTIMUS DSS works (3/8)
Weather forecast
Occupants
feedback
Energy prices
De-centralized
sensor (BEMS)
RES production
Sunday Monday Tuesday Wednesday Thursday Friday Saturday…Historical data
Pre
dic
tio
n m
od
els
Inference rules
Available data
Inference rules use the predicted and monitored data
to suggest short-term actions plans to the final user.
How the OPTIMUS DSS works (4/8)
Weather forecast
Occupants
feedback
Energy prices
De-centralized
sensor (BEMS)
RES production
Sunday Monday Tuesday Wednesday Thursday Friday Saturday…
Pre
dic
tio
n m
od
els
Historical data
En
erg
y M
od
els
Inference rules
• Raise set point temperature
• Shift loads at 11 am
• Partial free cooling at 16 am
• Start heating system at 7 am
Available data
Short-terms actions plans
are presented to the user in
a simple and clear manner.
How the OPTIMUS DSS works (5/8)
Weather forecast
Occupants
feedback
Energy prices
De-centralized
sensor (BEMS)
RES production
Sunday Monday Tuesday Wednesday Thursday Friday Saturday…
Pre
dic
tio
n m
od
els
Historical data
Acti
on
pla
ns
sug
gest
ed
by t
he D
SS
Inference rules
• Raise set point temperature
• Shift loads at 11 am
• Partial free cooling at 16 am
• Start heating system at 7 am
Available data
End-users interfaces display the monitored, forecasted data
and the short-term plans in order to support experts’ decisions.
OPTIMUS DSS INTERFACES
How the OPTIMUS DSS works (6/8)
Weather forecast
Occupants
feedback
Energy prices
De-centralized
sensor (BEMS)
RES production
Sunday Monday Tuesday Wednesday Thursday Friday Saturday…
Pre
dic
tio
n m
od
els
Historical data
Acti
on
pla
ns
sug
gest
ed
by t
he D
SS
Inference rules
• Raise set point temperature
• Shift loads at 11 am
• Partial free cooling at 16 am
• Start heating system at 7 am
Available data
OPTIMUS DSS INTERFACES
The results of the implementation of the actions
in each pilot city will modify the data sources
Models implementation:
- Multiple linear regressors
- Resistance-capacitance model
For each building, an individual configuration is required
in order to boost the forecasting performance.
Four different prediction modelshave been developed and operatewithin the OPTIMUS DSS toimplement the Inference Rules andsuggest Action Plans.
Weather
forecasting
De-centralized
sensor-based
Feedback from
occupants
Energy prices
RES production
How the OPTIMUS DSS works (7/8)
Generation and
On-site renewable
production
How the OPTIMUS DSS works (8/8)
AP 1 Scheduling and management of the occupancy
AP 2 Scheduling the set-point temperature
AP 3 Scheduling the ON/OFF of the heating system
AP 4 Management of the air side economizer
AP 5 Scheduling the photovoltaic (PV) maintenance
AP 6 Scheduling the sale/consumption of the electricity
produced through the PV system
AP 7 Scheduling the operation of heating and electricity
systems towards energy cost optimization
Heating and cooling
Occupancy
Air conditioning
DSS server
Savona
Savona SchoolSavona DSS
OPTIMUS DSS Setup (1/5)
Monitoring data
Action plans
- Building Energy Management System
- Monitoring system
- Climate conditions
- Occupants feedback
Data capturing
modules
Savona Campus
Monitoring data
Action plans
Data capturing
modules
- Energy Market
- Renewable energy production system
- CHP, batteries use, etc.
1) Registering a new building
with some static data
OPTIMUS DSS Setup (2/5)
OPTIMUS DSS Setup (3/5)
2) Setting up the building partitioning
The zones is a logic model of the reality of the
building. Each zone refers to an area of the
building which is monitored (through sensors)
and/or an area where an action plan can be
applied.
OPTIMUS DSS Setup (4/5)
3) Setting up the sensors
- Name
- URL service: Web service URL
(RapidAnalytics) of the Prediction model
used to forecast data.
- URL: internal identifier of the sensor,
Prediction model parameters: List of
sensors needed
- Units
- Aggregation method
4 Setting up the action plans
The action plans can be invoked for a
particular zone (previously defined in
step 2).
For each zone where the action plan
will be applied, the sensors needed by
the action plan have to be mapped to
the available sensors of the building
(Previously defined in step 3).
OPTIMUS DSS Setup (5/5)
End-user environment: Tracker
DSS graphical user interfaces (1/10)
End-user environment: City Dashboard
DSS graphical user interfaces (2/10)
End-user environment: Buildings
DSS graphical user interfaces (3/10)
End-user environment: Building Dashboard
DSS graphical user interfaces (4/10)
End-user environment: Action Plans
DSS graphical user interfaces (5/10)
End-user environment: Action Plans
DSS graphical user interfaces (5/10)
End-user environment: Historical Data
DSS graphical user interfaces (6/10)
End-user environment: Weekly Report
DSS graphical user interfaces (7/10)
End-user environment: Weekly Report
DSS graphical user interfaces (8/10)
DSS graphical user interfaces (9/10)
End-user environment: Weekly Report
End-user environment: User Activity
DSS graphical user interfaces (10/10)
Indicators to be optimized
Energy consumption
CO2 emissions
Thermal comfort
General purpose
Reduction of the building energy consumption by changing the location of
building occupants, so as to use the minimum number of thermal zones
and turn off the heating/cooling system in the empty zones.
By displacing the building occupants to occupy firstly the building zones with
the minor energy consumption.
How does it work?
Action Plans (1/22)
Action Plan 1: Scheduling and management of the occupancy
Structure of the Action Plan
DSS Application
• Occupancy: occupation intensity,
presence time, constraints related to
occupancy
• Thermal needs
Static data
Theoretical Inference rules
Energy Model
Zaanstad
Action Plans (2/22)
Action Plan 1: Scheduling and management of the occupancy
Action Plans (3/22)
Action Plan 1: Scheduling and management of the occupancy
DSS interface
Conditioned
rooms
Building
zones
unconditioned
rooms
Indicators to be optimized
Energy consumption
CO2 emissions
Thermal comfort
General purpose
Optimizing energy use for heating and cooling, while maintaining comfort
levels in accepted ranges.
By supporting the energy manager in adjusting the temperature set-point
after taking into consideration thermal comfort parameters. The preferred
temperature is calculated through the Thermal Comfort Validation (TCV)
and/or the Adaptive Comfort Concept.
How does it work?
Action Plans (4/22)
Action Plan 2: Scheduling the set-point temperature
ISO 7730:2006 & “A framework for integrating User Experience in Action Plan Evaluation through Social Media”. Proceedings
of the 6th International Conference on Information, Intelligence, Systems and Applications (IISA 2015), July 6-8, 2015 - Corfu,
Greece.
Indoor
conditions
Analysis and evaluation
of user’s feedback
Set points
Calculation of the
Predicted Mean Vote
(PMV)
Reconsider
set point temperature…
Predicted
Values
Actual
Values Thermal
Sensation
Building’s
users DeviationInference
Rules
http://validator.optimus-smartcity.eu
Action Plans (5/22)
Action Plan 2: Scheduling the set-point temperature
Outdoor air
temperatureFeedback from
occupants
DSS Application
Sant Cugat
Historical data
Theoretical Inference rules
Energy Model Predicted data
Zaanstad
Indoor set point
temperature
Savona
Action Plans (6/22)
Action Plan 2: Scheduling the set-point temperature
Structure of the
Action Plan
Action Plans (7/22)
Action Plan 2: Scheduling the set-point temperature
DSS interface
Set point temperature
suggestionBuilding
zones
Indicators to be optimized
Energy consumption
CO2 emissions
Thermal comfort
General purpose
Reduction of energy use by optimizing the boost time of the heating
system.
The boost heating phase duration is calculated based on climatic data
forecasts and the occupancy of the building. The social feedback and the
thermal comfort level is also considered.
How does it work?
Action Plans (8/22)
Action Plan 3: Scheduling the ON/OFF of the heating system
Outdoor air
temperature
Indoor air temperature
Energy consumption
Social media/
mining
Indoor air temperature
DSS Application
Sant Cugat
Savona
• On/off of the heating/cooling
system
• Occupied/unoccupied space
• Space heating capacity
Static data
Historical data
Theoretical Inference rules
Energy Model
Zaanstad
Predicted data
Prediction model
Action Plans (9/22)
Action Plan 3: Scheduling the ON/OFF of the heating system
Structure of the Action Plan
Action Plans (10/22)
Action Plan 3: Scheduling the ON/OFF of the heating system
DSS interface
7:00 18:00
6:30 18:00
7:00 18:00
6:00 18:00
7:00 18:00
7:00 18:00
6:30 18:00
7:00 17:00
6:00 17:00
7:00 18:00
8:00 18:00
6:30 18:00
8:00 18:00
6:00 18:00
7:00 18:00
8:00 18:00
6:30 18:00
8:00 17:00
6:00 17:00
7:00 18:00
7:00 18:00
6:30 18:00
7:00 18:00
6:00 18:00
7:00 18:00
Start and stop schedule
of the heating system
Building
zones
Indicators to be optimized
Energy consumption
CO2 emissions
Thermal comfort
General purpose
When there is a need for cooling and if the outdoor-air conditions are
favorable, outdoor-air is used to meet all of the cooling energy needs or
supplement mechanical cooling.
How does it work?
Optimizing energy use and reducing energy cost by exploiting outdoor-air to
reduce or eliminate the need for mechanical cooling.
Action Plans (11/22)
Action Plan 4: Management of air side economizer
Outdoor air temperature
Outdoor relative humidity
Indoor air temperature
Indoor relative
humidity
DSS Application
Sant Cugat
Historical data
Theoretical Inference rules
Energy Model
Predicted data
Action Plans (12/22)
Action Plan 4: Management of air side economizer
Structure of the
Action Plan
Action Plans (13/22)
Action Plan 4: Management of air side economizer
DSS interface
Suggestions for doing
free coolingTime schedule of
the suggestions
Indicators to be optimized
Energy consumption
Renewable energy production
CO2 emissions
General purpose
By detecting the need for maintenance of the PV system and providing an
alert prompting for appropriate maintenance actions. The identification of
abnormalities and possible problems is facilitated through appropriate
statistical methods.
How does it work?
Optimizing renewable energy production by detecting on time possible
faults of the PV system.
Action Plans (14/22)
Action Plan 5: Scheduling the PV Maintenance
Weather
conditionsRES Production
Historical data
Theoretical Inference rules
Energy ModelDSS Application
Sant Cugat
Savona
Action Plans (15/22)
Action Plan 5: Scheduling the PV Maintenance
Structure of the
Action Plan
Predicted data
Action Plans (16/22)
Action Plan 5: Scheduling the PV Maintenance
DSS interface
Alarm status of
the PV system
Indicators to be optimized
General purpose
By optimizing the selling/self-consumption of the electricity produced by a PV
system. Different scenarios of energy market are considered (green strategy,
finance strategy, peak strategy).
How does it work?
Optimizing energy consumption or energy cost by exploiting RES production
and load shifting techniques. Maximization of the self-consumption of
electricity produced on-site, and selling of the surplus to make a profit.
Income from the sale of surplus of energy produced through PV system
Energy consumption
Renewable energy production
CO2 emissions
Action Plans (17/22)
Action Plan 6: Scheduling the sale/consumption of the electricity produced
through the PV system
Weather
forecastingEnergy prices
Theoretical Inference rules
Energy ModelDSS Application
Sant Cugat
Savona
RES
production
Predicted data Prediction model
RES production
Action Plans (18/22)
Action Plan 6: Scheduling the sale/consumption of the electricity produced
through the PV system
Structure of the
Action Plan
Action Plans (19/22)
Action Plan 6: Scheduling the sale/consumption of the electricity produced
through the PV system
DSS interface
Energy consumption,
production and price
Suggestions to buy energy,
sell energy and shift loads
Indicators to be optimized
General purpose
The real use of the infrastructures related with energy consumption and
generation (PV fields, CHP systems and electricity storage) is simulated to
specify based on the season (winter/summer) the schedule of the
heating/cooling systems and then suggestions are made regarding when
the energy generated by the systems of the buildings should be used,
stored or sold in order to minimize energy cost or even make a surplus.
In case that load shifting is possible, additional suggestions are made
regarding when energy intensive processes should be scheduled.
How does it work?
Minimize total energy cost of a building (or block of buildings) by optimizing
simultaneously the operating schedule of its heating and electricity systems.
Energy cost
Action Plans (20/22)
Action Plan 7: Scheduling the operation of heating and electricity systems
towards energy cost optimization
Weather
forecastingEnergy prices
Theoretical Inference rules
Energy Model
Structure of the
Action Plan
DSS Application
Savona
RES production
Prediction model
RES production
De-centralized
sensor based
Electricity demand
Thermal demand
Energy prices
Action Plans (21/22)
Action Plan 7: Scheduling the operation of heating and electricity systems
towards energy cost optimization
DSS interface
Action Plans (22/22)
Action Plan 7: Scheduling the operation of heating and electricity systems
towards energy cost optimization
Suggestions for load
shifting
Suggestions for optimizing
battery use
Suggestions for optimizing the
operation of the thermal systems
DSS interface
Action Plans (22/22)
Action Plan 7: Scheduling the operation of heating and electricity systems
towards energy cost optimization
Suggestions for optimizing
battery use
This project is co-funded
by the European Union