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Eco‐friendly Route Planning

The eCOMPASS Approach

The eCOMPASS Approach

Christos Zaroliagis

(2)

COMPASS

eCOMPASS

eCO

‐friendly urban

M

ulti‐modal route

eCO

‐friendly urban 

M

ulti‐modal route 

P

l

A

nning

S

ervices for mobile u

S

ers

FP7‐288094 – Collaborative Project (STREP)

1.11.2011 – 31.10.2014

(3)

Main Aims

Main Aims

Address high

Address high 

environmental impact of urban mobility

environmental impact of urban mobility

(people &

(people & 

goods)  

New mobility concepts and methodological framework for 

y

p

g

route 

planning 

optimization, regarding:

Private cars

Fleets of vehicles

Multi‐modal public transportation

Deliver 

innovative 

tools and services for mobile users

to enable eco‐awareness in 

b

lti

d l t

t

urban multi‐modal transport

services to familiar end‐user mobile devices

E t bli h

i

tifi

i i l

(

l l

ith i

l ti

)

Establish 

new scientific principles 

(novel algorithmic solutions)

(4)

Objectives

Objectives

Mobility of private car

Mobility of private car 

drivers

drivers

Intelligent on‐board navigation systems that seamlessly provide 

“green” route recommendations

green  route recommendations

Mobility of 

goods

through fleets of vehicles

Eco aware logistics and fleet management system used by back

Eco‐aware logistics and fleet management system used by back‐

off staff and on‐board systems used by drivers

Mobility of

city dwellers

and

tourists

Mobility of 

city dwellers

and 

tourists

Advanced web and mobile services 

facilitating the use of complex urban public transportation networks

facilitating the use of complex urban public transportation networks 

making “green” passenger transport more appealing

Personalized recommendations for daily sightseeing itineraries

(5)

Approach

Approach

Eco‐aware

navigation & fleet management

Context‐aware & personalized

public transport route 

planning

(6)

Eco‐aware navigation

Eco aware navigation

Private Vehicle Navigation System

Private Vehicle Navigation System

Eco‐efficient routes through traffic prediction

Increased reliability of road traffic input data

Increased reliability of road traffic input data

Robust routes recommendation

Increased eco‐efficiency through traffic load balancing

Alternative route recommendations

Driving style‐dependent route recommendations and eco‐coaching

f

bl

Transfers to public transportation

(7)

Eco‐aware fleet 

management

Fleet/logistics Management System

Fleet/logistics  Management System

Eco‐aware vehicle route planning

Eco‐friendly routes for fleets of vehicles based on traffic prediction

Eco friendly routes for fleets of vehicles based on traffic prediction

Increased reliability of road traffic input data

(8)

Context‐aware & personalized 

bli

l

i

public transport route planning

Web and Mobile Services for multi modal public transport

Web and Mobile Services for multi‐modal public transport 

route planning taking into account 

contextual information

contextual information 

various user constraints and optimization criteria

Multi‐modal Public Transportation Route Planning

Multi‐objective OD multi‐modal public transportation route planning

Multi objective OD multi modal public transportation route planning 

Optimized personalized daily multi‐modal public transportation routes for 

tourists

(9)

Novel end‐products & services

p

Environmentally-friendly on-board Environmentally-friendly logistics/fleet management system Multimodal transportation routes optimization logic Real-time multimodal public transportation data friendly on board navigator Optimal multimodal On-board navigator public transportation route Private vehicles Regular public

transportation Tourists that visit

Fleets of goods or humans transportation vehicles Vehicle navigation and fleet management services p

passenger Tourists that visit sites using public transportation

Web and mobile services for optimal multimodal urban mobilit ro te planning

p

(10)

Progress so far

Progress so far

Use Group Identification, Needs & Requirements Analysis

Specification of Use Cases and Priority Application 

Scenarios

Specification of the eCOMPASS System Architecture 

Pilot Planning

Pilot Planning

New Prospects in Eco‐friendly vehicle routing and multi‐

modal route planning

modal route planning

(11)

Fundamental System Model

y

User location User preferences Optimal route Multimodal route planning

COMPASS

Public transport data Traffic data p g Personalised Route Recommendations/ Eco-coaching Pre planning

eCOMPASS

system

Points of interest Weather and Pre-planning suggestions

Park & Drive

environmental info User behaviour it i d t Traffic prediction Mission information

monitoring data Mission information

Fuel cost data Fleet

Management D t

(12)
(13)

Use Cases & Pilots

Use Cases & Pilots

eCOMPASS services will be evaluated and validated

eCOMPASS services will be evaluated and validated 

through specific use scenarios

Two pilot tests in the City of Berlin 

Pilot 1: private cars and fleets of vehicles

Pilot 2: citizens/tourists in public transport 

using

road infrastructure elements and vehicle fleets 

individual car traffic and public transport data

(14)

Consortium

Consortium

CTI (

Computer Technology Institute & Press “Diophantus”)

CTI (

Computer Technology Institute & Press  Diophantus )

Coordinator

CERTH (Centre for Research & Technology Hellas)

ETHZ (Swiss Federal Institute of Technology)

KIT (Karlsruhe Institute of Technology) 

TomTom (TomTom International B.V.)

TomTom (TomTom International B.V.)

(15)

Epilogue

Epilogue

eCOMPASS provides a great opportunity towards

eCOMPASS provides a great opportunity towards

addressing the high‐demand, eco‐friendly urban mobility 

challenges

challenges

offering  novel end‐products and services

More information about eCOMPASS at

http://www.ecompass‐project.eu

http://www.ecompass project.eu

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